Condensate water guide structure of a smoothie maker

Abstract

The utility model relates to a kind of condensate water water guide structure of ice blender, including host computer, refrigeration device is arranged in host computer, and the front part of host computer is formed with discharge seat;Ice cylinder is vertically installed in the discharge seat;Scraper is sleeved in the outside of ice cylinder, and is driven by driving part, rotates relative to ice cylinder;Ice cup is installed on discharge seat, and ice cylinder is completely covered;Discharge seat is provided with outer downcomer structure and inner downcomer structure, and outer downcomer structure is located in the discharge seat, and the condensate water liquefied on ice cup is drained;Inner downcomer structure is located in host computer, and the condensate water liquefied on the inner wall of host computer is drained.The utility model has the beneficial effect that by being provided with first condensate water passage and first downcomer on discharge seat, the condensate water liquefied due to temperature difference outside ice cup can be accurately collected, and be exported to drain outlet through water pipeline, avoid condensate water to accumulate outside host computer, keep equipment appearance dry neat, improve use hygienic property.

Description

Technical Field

[0001] This utility model relates to the technical field of ice-making equipment, and in particular to a condensate water guiding structure for a slush machine. Background Technology

[0002] A beverage machine is a device that stores and dispenses liquids. It typically has a storage tank for storing liquids, and a dispensing mechanism at the outlet of the tank controls whether liquid is dispensed. In existing technology, most beverage machines also have a refrigeration function or the ability to crush ice into slush-like cold drinks.

[0003] Existing smoothie machines typically employ a horizontal evaporator structure with a spiral scraper on the outside of the evaporator structure. The smoothie condensed on the outer wall of the evaporator is scraped off and guided to the discharge port through the spiral structure.

[0004] However, horizontally positioned smoothie machines take up a lot of table space and are inconvenient to store; in addition, the spiral-shaped scraper cannot guide the smoothie that falls to the bottom of the beverage container, resulting in smoothie residue.

[0005] Chinese invention patent application CN120585209A discloses a beverage machine, including a storage tank, a refrigeration device, a dispensing support, a dispensing control mechanism, and a heat preservation component. The storage tank contains at least one liquid. The refrigeration device includes an evaporator tube for cooling the liquid in the storage tank. The dispensing support is located at the dispensing end of the storage tank and has a heat preservation cavity and a material passage. The dispensing control mechanism is located at the bottom of the material passage and controls the liquid dispensing volume from the storage tank. The heat preservation component is located within the heat preservation cavity and insulates the dispensing support. In this beverage machine, the dispensing support is insulated by the heat preservation component. Even if the dispensing support comes into contact with the liquid in the storage tank and cools down, the heat preservation component reduces the probability of condensation forming on the dispensing support, thus improving aesthetics and hygiene. Simultaneously, a dispensing control mechanism is located at the bottom of the dispensing end of the material passage of the dispensing support, facilitating installation and maintenance by the user.

[0006] However, during the process of making chilled beverages, the slush machine cools the storage cylinder outside the refrigeration unit. This causes the air inside and outside the storage cylinder to condense on the inner and outer walls, forming condensate. The condensate flows down the cylinder wall and accumulates on the main unit, making it damp. Furthermore, a large amount of condensate seeps into the interior of the main unit, affecting the normal operation of other internal components. Utility Model Content

[0007] In order to solve the above-mentioned problems in the prior art, this utility model provides a condensate water guiding structure for a smoothie machine.

[0008] The above-mentioned problems of this utility model are solved by the following technical solution: A condensate water guiding structure for a smoothie maker includes, The main unit is equipped with a refrigeration device, and a discharge seat is formed at the front of the main unit. An ice-making cylinder, which is vertically installed inside the discharge seat; The scraper is fitted around the outside of the ice-making cylinder and is driven by the drive component to rotate relative to the ice-making cylinder around axis L; An ice cup is installed on the dispensing seat, completely covering the ice maker, and together with the dispensing seat, forms a beverage making chamber; The discharge seat is equipped with an external water discharge structure and an internal water discharge structure. The external water discharge structure is located inside the discharge seat and discharges the condensate that has liquefied on the outer wall of the ice cup. The internal water discharge structure is located inside the main unit and discharges the condensate that has liquefied at the bottom of the discharge seat.

[0009] A further provision of the above technical solution is that the external water discharge structure includes a first condensate channel formed on the discharge seat, the first condensate channel being located around the ice cup; and a first drain outlet is provided in the first condensate channel, the first drain outlet being connected to the drain outlet of the main unit through a drain pipe.

[0010] A further provision of the above technical solution is that an inclined water guiding surface is provided on the inner side of the first drain outlet.

[0011] By adopting the above technical solution, the inner side of the first drain outlet is designed with an inclined water guiding surface, which can gather the dispersed condensate water to the center of the drain outlet, accelerate the drainage speed, reduce residual water accumulation, and reduce the risk of bacterial growth.

[0012] A further provision of the above technical solution is that a sealing gasket is provided between the bottom of the ice-making cylinder and the discharge seat, and the sealing gasket is flush with the first drain outlet.

[0013] A further provision of the above technical solution is that: a sealing groove is provided on the discharge seat, and the sealing gasket is embedded in the sealing groove and flush with the opening of the sealing groove; The lower end of the ice cup is pressed against the upper surface of the sealing gasket.

[0014] By adopting the above technical solution, a sealing gasket is set between the bottom of the ice cup and the dispensing seat, which is embedded in the sealing groove and flush with the groove opening. The lower end of the ice cup is pressed against the upper surface of the sealing gasket, which can effectively prevent the condensate in the first condensate channel from seeping into the beverage making chamber through the gap, thus avoiding contamination of the finished shaved ice and ensuring the hygiene and safety of the beverage.

[0015] A further provision of the above technical solution is that the internal water supply structure includes a water receiving seat located below the discharge seat and inside the main unit, for receiving condensate dripping from the bottom of the discharge seat; The water receiving base is equipped with a second drain outlet and is connected to the drain pipe.

[0016] A further provision of the above technical solution is that a second condensate channel is provided around the first condensate channel, the second condensate channel is an arc-shaped groove, and a third drain outlet is provided inside the second condensate channel.

[0017] A further provision of the above technical solution is that a water guide pipe extends from the first drain outlet toward the second drain outlet, and a gap is formed between the water guide pipe and the edge of the second drain outlet.

[0018] By adopting the above technical solution, a water receiving seat is set at the lower end of the discharge seat, forming a water receiving trough with the bottom of the discharge seat. The first and second drain outlets are both located above the water receiving trough. After the condensate is collected in the water receiving trough, it is discharged through the water guide pipe, realizing the "unified collection and centralized discharge" of internal and external condensate, simplifying the pipeline design and improving the compactness and stability of the drainage system.

[0019] A further configuration of the above technical solution is as follows: the discharge seat includes a discharge base and a discharge cover, the upper surface of the discharge base forms an ice-receiving surface for receiving ice shavings, and the discharge cover has a discharge wall that defines the boundary of the ice-receiving surface; the water-receiving seat is located below the discharge base.

[0020] Compared with the prior art, the beneficial effects of this utility model are as follows: By setting a first condensate channel and a first drain outlet on the discharge seat, the condensate liquefied by the temperature difference on the outside of the ice cup can be accurately collected and discharged to the drain outlet through the drain pipe, avoiding the accumulation of condensate on the outside of the main unit, keeping the appearance of the equipment dry and clean, and improving the hygiene of use. The system utilizes a drain platform and an arc-shaped second condensate channel located inside the main unit to collect condensate that has liquefied on the inner wall of the main unit. The condensate is then discharged into the drainage system through the second drain outlet, preventing it from seeping into the precision components inside the main unit and ensuring the long-term stable operation of the equipment. Attached Figure Description

[0021] Figure 1 This is an exploded structural diagram of the present invention.

[0022] Figure 2 This is a schematic diagram of the material discharge seat.

[0023] Figure 3 This is a schematic diagram of the exploded structure of the drainage system.

[0024] Figure 4 This is a schematic diagram of the cross-sectional structure of the first drain outlet.

[0025] Figure 5 This is a schematic diagram of the structure for contacting the ice surface.

[0026] The attached diagram is labeled as follows: 100, Main unit; 110, Discharge seat; 111, Discharge base; 112, Discharge cover; 112.1, Discharge wall; 103, First condensate channel; 103.1, First drain outlet; 104, Second condensate channel; 104.1, Third drain outlet; 103.11, Water guide surface; 111.3, Sealing groove; 111.31, Anti-slip rib; 12.1, Water receiving groove; 1, Ice maker; 2, Scraper; a, Ice receiving surface; 9, Sealing gasket; 10, Drain pipe; 12, Water receiving seat; 12.2, Second drain outlet; 200, ice cup; 500. Water collection box; 501. Drain outlet; Detailed Implementation

[0027] To further illustrate the technical means and effects adopted by this utility model in order to achieve the intended utility model purpose, the following detailed description of the specific implementation methods, structure, features and effects of this utility model is provided in conjunction with the accompanying drawings and preferred embodiments.

[0028] like Figure 1-5 As shown in the figure, this embodiment discloses a condensate water guiding structure for a smoothie machine.

[0029] include, The host 100 is equipped with a refrigeration device, and a discharge seat 110 is formed at the front of the host 100. Ice-making cylinder 1, which is vertically installed inside the discharge seat 110; The scraper 2 is sleeved on the outside of the ice-making cylinder 1 and is driven by the driving component to rotate relative to the ice-making cylinder 1 around the axis L. An ice cup 200 is installed on the dispensing seat 110, completely covering the ice maker 1, and together with the dispensing seat 110, forms a beverage making chamber; The discharge seat 110 is provided with an external water discharge structure and an internal water discharge structure. The external water discharge structure is located inside the discharge seat 110 and discharges the condensed water that has liquefied on the outer wall of the ice cup 200. The internal water discharge structure is located inside the main unit 100 and discharges the condensed water that has liquefied at the bottom of the discharge seat 110.

[0030] The above is the basic scheme of this embodiment.

[0031] Specific reference Figure 1As shown, the refrigeration unit mainly consists of a compressor and an evaporator, which are integrated into the internal structure of the main unit 100. The compressor compresses the gaseous refrigerant into a high-temperature, high-pressure state, and then transports it to the evaporator through pipelines. The evaporator converts the refrigerant into a low-temperature liquid state through heat exchange. This low-temperature refrigerant is then transported to the ice-making cylinder 1 inside the discharge seat 110 via a dedicated pipeline, where heat conduction causes the overall temperature of the ice-making cylinder 1 to drop rapidly.

[0032] During the ice-making process, the pre-mixed beverage concentrate is precisely injected into the ice cup 200 and then evenly poured onto the outer wall of the ice-making cylinder 1. When the temperature of the ice-making cylinder 1 drops below freezing point under the action of the refrigeration device, the beverage concentrate adhering to the outer wall rapidly undergoes a phase change, transforming from a liquid state into a solid ice layer. At the same time, the transmission component driven by the motor drives the scraper 2 to rotate around the axis L. The blade of the scraper 2 maintains appropriate contact pressure with the outer wall of the ice-making cylinder 1, completely scraping away the solidified ice layer. The scraped ice layer naturally breaks apart under the action of gravity, forming fine ice slush particles, which gradually accumulate on the ice-receiving surface a of the discharge seat 110. The ice scraper installed at the lower end of the scraper 2 rotates synchronously with the scraper 2, continuously pushing the accumulated ice slush to the discharge port of the discharge seat 110, ultimately completing the automated output of the ice slush product.

[0033] In this embodiment, the ice-making method and ice-scraping method of the slush machine are the same as those of the horizontally arranged slush machines in the prior art, and will not be described in detail here.

[0034] In this embodiment, two drainage systems, an inner drainage structure and an outer drainage structure, are provided on the dispensing seat 110. The outer drainage structure is primarily responsible for handling condensation generated on the outer surface of the ice cup 200, efficiently guiding and draining the water droplets condensed on the outer wall of the ice cup 200, preventing condensation from flowing along the outer wall of the main unit. Meanwhile, the inner drainage structure is specifically designed to handle condensation generated inside the main unit 100. Its specific location is at the bottom of the dispensing seat 110. When the dispensing seat 110 receives ice slush, it cools rapidly. The air inside the main unit 100 below the dispensing seat 110 encounters the low-temperature bottom surface of the dispensing seat 110 and quickly liquefies, forming water droplets that condense at the bottom of the dispensing seat 110. When excessive condensation occurs, it drips onto the internal drainage structure under gravity. The internal drainage structure collects and drains the dripping condensate, effectively preventing it from flowing freely inside the main unit 100. This avoids potential adverse effects of moisture on the precision components inside the main unit 100 and ensures the long-term stable operation of the refrigeration system. The two drainage structures, each with its own function and working in concert, constitute a complete condensate treatment system.

[0035] Specifically, the external drainage structure includes a first condensate channel 103 formed on the discharge seat 110, the first condensate channel 103 being located on the periphery of the ice cup 200; and a first drain outlet 103.1 is provided in the first condensate channel 103, the first drain outlet 103.1 being connected to the drain outlet 501 of the main unit 100 through the drain pipe 10.

[0036] In this embodiment, a water receiving box 500 is provided at the front end of the host 100, and the drain outlet 501 is provided on the water receiving box 500.

[0037] Specific reference Figure 2 As shown, the dispensing seat 110 is provided with an ice-receiving surface a for collecting condensate. When the ice cup 200 completely covers the dispensing seat 110, this ice-receiving surface a is naturally divided into an inner area and an outer area by the bottom of the ice cup 200. The inner area is located directly below the ice cup 200 and is mainly used to collect the finished shaved ice product cut off from the outside of the ice-making cylinder 1; while the outer area is a complete annular structure formed around the outer edge of the ice cup 200, and this annular space constitutes the first condensate channel 103.

[0038] During the ice-making process, the interior of the ice cup 200 maintains an extremely low temperature due to the continuous production of ice slush, creating a significant temperature difference with the ambient air outside the ice cup 200. This temperature difference effect causes water vapor in the air surrounding the outer wall of the ice cup 200 to continuously condense upon cooling, forming a large number of condensation droplets on the outer surface of the ice cup 200. These condensations slide down naturally under gravity and are completely collected by the first condensation channel 103.

[0039] To ensure effective drainage of condensate, the first condensate channel 103 is specially equipped with a first drain outlet 103.1, which guides the collected condensate into the drain pipe 10. The drain pipe 10 is vertically arranged and utilizes the principle of gravity flow to smoothly guide the condensate to the drain outlet 501 at the bottom of the main unit 100 for centralized discharge, thereby keeping the surrounding environment of the equipment dry and clean.

[0040] In this embodiment, when ice making is complete, the user removes the ice cup 200 from the dispensing seat 110. At this time, a small amount of condensate in the internal area of ​​the dispensing seat 110 will flow outward and can also be collected through the first drain 103.1.

[0041] During the ice-making process, the user puts the ingredients into the ice cup 200. When a small amount of ingredients splashes out of the ice cup 200, it can be collected through the first condensate channel 103.

[0042] In this embodiment, an inclined water guiding surface 103.11 is provided on the inner side of the first drain outlet 103.1.

[0043] Specific reference Figure 4 The opening of the first drain outlet 103.1 is located on the bottom surface of the first condensate channel 103, and the water guiding surface 103.11 serves as a flow guiding component, forming the internal space of the first drain outlet 103.1. Specifically, the water guiding surface 103.11 is designed to gradually slope from the outer edge of the opening towards the center, forming a smooth, downward-extending slope that effectively captures and guides the condensate flowing down from the edge of the opening.

[0044] Based on the above configuration, the condensate dispersed at the edge of the opening is gradually gathered by the guiding effect of the slope, eventually flowing towards the center of the first drain outlet 103.1, achieving an orderly and centralized drainage function. This design not only improves drainage efficiency but also prevents condensate from accumulating at the edges, ensuring the stable operation of the entire drainage system.

[0045] In order to prevent condensate in the first condensate channel 103 from seeping into the beverage making chamber through the gap between the bottom of the ice cup 200 and the ice receiving surface a, in this embodiment, a sealing gasket 9 is provided between the bottom of the ice cup 200 and the dispensing seat 110, and the sealing gasket 9 is flush with the first drain outlet 103.1.

[0046] In other embodiments, the sealing gasket 9 may also be positioned slightly above the first drain outlet 103.1 to ensure that the sealing gasket 9 and the lower end of the ice cup 200 can fit tightly together.

[0047] Both the ice cup 200 and the dispensing seat 110 are made of rigid materials such as hard engineering plastics or stainless steel. Due to the inherent properties of these materials, their elastic deformation capacity is relatively limited during assembly. This limited deformation capacity makes it difficult to achieve a complete fit between the mating surfaces, inevitably creating assembly gaps at the assembly points. In contrast, the sealing gasket 9 is typically made of soft polymer materials with excellent elasticity, such as silicone or fluororubber. These materials possess excellent flexibility and resilience, and can produce significant elastic deformation when subjected to axial or radial assembly pressure. This deformation not only fully fills the tiny gaps formed by the assembly of rigid components but also creates a uniform contact pressure distribution between the extruded parts, thereby achieving a reliable sealing effect.

[0048] In this embodiment, the sealing gasket 9 is accurately embedded into the ice-receiving surface a, ensuring that the upper surface of the sealing gasket 9 is completely flush with the ice-receiving surface a. When the ice cup 200 is installed onto the dispensing seat 110, the lower end of the ice cup 200 will make close contact with the sealing gasket 9. Under the installation pressure, the sealing gasket 9 will undergo elastic deformation, which allows the sealing gasket 9 to fit tightly against the bottom of the ice cup 200, thereby forming a reliable sealing structure between the two. This design ensures both a sealing effect and prevents the ice cup 200 from loosening or leaking during installation.

[0049] The purpose of making the upper end of the sealing gasket 9 flush with the ice-receiving surface a is to allow the condensate sliding down the outer wall of the ice cup 200 to smoothly enter the first condensate channel 103, and not to be blocked between the sealing gasket 9 and the outer wall of the ice cup 200 due to the deformation of the sealing gasket 9.

[0050] In this embodiment, the sealing gasket 9 is specifically configured as follows: a sealing groove 111.3 is provided on the discharge seat 110, and the sealing gasket 9 is embedded in the sealing groove 111.3 and is flush with the opening of the sealing groove 111.3; The lower end of the ice cup 200 is pressed against the upper surface of the sealing gasket 9.

[0051] Specific reference Figure 5 As shown, the sealing groove 111.3 is an annular groove specifically designed for icy surfaces. Its main function is to accommodate and fix the sealing gasket 9, which is installed inside the annular groove by direct embedding. To ensure the stability and reliability of the sealing gasket 9 within the sealing groove 111.3 and to prevent radial displacement or loosening during use, this embodiment specifically adds annular anti-slip ribs 111.31 to the inner wall of the sealing groove 111.3. The anti-slip ribs 111.31 are arranged in a continuous or intermittent annular pattern, forming a tight contact with the lower end face of the sealing gasket 9 and generating a moderate squeezing effect. Based on this arrangement, a large static friction force can be generated between the anti-slip ribs 111.31 and the sealing gasket 9, thereby effectively limiting the radial movement of the sealing gasket 9 within the sealing groove 111.3 and ensuring that the sealing gasket 9 maintains stable sealing performance during long-term use.

[0052] In this embodiment, the specific implementation of the internal drainage structure is as follows: In this embodiment, the internal drainage structure includes a water receiving seat 12 located below the discharge seat 110 and inside the main unit 100, for receiving condensate dripping from the bottom of the discharge seat 110; The water receiving base 12 is provided with a second drain outlet 12.2 and is connected to the drain pipe 10.

[0053] Specific reference Figure 3 As mentioned above, a water receiving seat 12 is provided inside the discharge seat to receive the condensate formed on the bottom surface of the water receiving surface a.

[0054] In this embodiment, the discharge seat 110 includes a discharge base 111 and a discharge cover 112. The upper end surface of the discharge base 111 forms an ice-receiving surface a for receiving ice shavings, and the discharge cover 112 has a discharge wall 112.1 that defines the boundary of the ice-receiving surface a.

[0055] The water receiving base 110 is located below the discharge base 111, that is, below the ice receiving surface a, and a water receiving groove 12.2 is formed between it and the lower end face of the discharge base 111.

[0056] Specific reference Figure 3 As shown, the water receiving base 12 is installed directly below the discharge base 110, and its structural design ensures that it can completely cover the area below the ice receiving surface a. The water receiving trough 111.61 is formed on the upper end surface of the water receiving base, and the bottom of the second drain outlet 12.2 is formed with a water pipe interface. The drain pipe 10 is connected to the water pipe interface to form a complete drainage channel.

[0057] Based on the above settings, the condensate discharged from both drains can smoothly enter the drain pipe, effectively preventing the problem of condensate leakage.

[0058] Ice receiving surface a is located on the upper end face of the discharge base 111. During the ice-making process, ice shavings fall onto ice receiving surface a, causing the discharge cover to cool down rapidly. The air below the discharge base 111 encounters the cooled discharge base 111 and condenses into water droplets, which adhere to the lower end face of the discharge base 111. When the water droplets condense to a certain amount, they drip onto the water receiving seat 12 under the action of gravity, where they are collected and discharged through the second drain outlet 12.2.

[0059] Preferably, in this embodiment, a second condensate channel 104 is provided around the first condensate channel 103, the second condensate channel 104 is an arc-shaped groove, and a third drain outlet 104.1 is provided inside the second condensate channel 104.

[0060] In this embodiment, refer to Figure 1 and Figure 3 As shown, the upper part of the main unit 100 adopts a stepped structure, with the ice-receiving surface a located at the lower step. A vertical sidewall, called the dispensing wall 112.1, extends from the side of the dispensing seat 110 and connects to the upper surface of the main unit 100. This dispensing wall 112.1 is located adjacent to the ice cup 200. Due to this structural layout, as the temperature of the ice cup 200 gradually decreases under the cooling effect of the ice-making cylinder 1, the air layer between the outer wall of the ice cup 200 and the dispensing wall 112.1 undergoes continuous heat exchange, causing the outer surface temperature of the dispensing wall 112.1 to drop accordingly. The inner side of the dispensing wall 112.1 is directly connected to the internal space of the main unit 100. When water vapor in the air inside the main unit 100 encounters the cooler dispensing wall 112.1, it liquefies, forming condensation droplets. Under the influence of gravity, this condensate slides down the inner surface of the discharge wall 112.1 and eventually drips into the main unit 100, which may cause moisture damage to the electronic components inside the main unit 100, thereby affecting the normal operation and service life of the equipment.

[0061] Therefore, in order to collect the condensate on the inner surface of the discharge wall 112.1, the structure of the arc-shaped groove is consistent with the structure of the side wall, and the lower end of the discharge wall 112.1 is connected to the arc-shaped groove. The condensate formed on the inner surface of the discharge wall 112.1 is collected along the inner surface into the arc-shaped groove.

[0062] Based on the above configuration, the external drainage structure can collect condensate from the outer wall of the ice cup 200 as well as condensate from the outer wall of the discharge wall 112.1.

[0063] In order to enable the first drain outlet 103.1 and the second drain outlet 12.2 to be connected to the drain pipe 10, in this embodiment, a water guide pipe extends from the first drain outlet 103.1 toward the second drain outlet 12.2, and a gap is formed between the water guide pipe and the edge of the second drain outlet 12.2.

[0064] Preferably, in order to ensure that the condensate in the water receiving base 12 can enter the second drain outlet 12.2, in this embodiment, the size of the second drain outlet 12.2 is larger than the size of the lower end of the water guide pipe, so that there is a gap between the second drain outlet 12.2 and the water guide pipe, so that the condensate in the water receiving base 12 can enter the second drain outlet 12.2 and be discharged.

[0065] The above description is merely a preferred embodiment of the present utility model and is not intended to limit the present utility model in any way. Although the present utility model has been disclosed above with reference to a preferred embodiment, it is not intended to limit the present utility model. Any person skilled in the art can make some modifications or alterations to the above-disclosed technical content to create equivalent embodiments without departing from the scope of the present utility model. Any simple modifications, equivalent changes and alterations made to the above embodiments based on the technical essence of the present utility model without departing from the scope of the present utility model shall still fall within the scope of the present utility model.

Claims

1. A condensate water guiding structure for a smoothie machine, comprising: The host (100) is equipped with a refrigeration device and a discharge seat (110) is formed at the front of the host (100); An ice-making cylinder (1) is vertically installed inside the discharge seat (110); The scraper (2) is fitted on the outside of the ice-making cylinder (1) and is driven by the driving component to rotate relative to the ice-making cylinder (1) around the axis L. An ice cup (200) is installed on the dispensing seat (110), completely covering the ice maker (1), and together with the dispensing seat (110) forms a beverage making chamber; Its features are: The discharge seat (110) is provided with an external drainage structure and an internal drainage structure. The external drainage structure is located inside the discharge seat (110) and drains the condensate that has liquefied on the outer wall of the ice cup (200). The internal drainage structure is located inside the main unit (100) and drains the condensate that has liquefied at the bottom of the discharge seat (110).

2. The condensate water guiding structure of the smoothie machine according to claim 1, characterized in that: The external drainage structure includes a first condensate channel (103) formed on the discharge seat (110), the first condensate channel (103) being located around the ice cup (200); and a first drain outlet (103.1) is provided in the first condensate channel (103), the first drain outlet (103.1) being connected to the drain outlet (501) of the main unit (100) through a drain pipe (10).

3. The condensate water guiding structure of the smoothie machine according to claim 2, characterized in that: An inclined water guide surface (103.11) is provided on the inner side of the first drain outlet (103.1).

4. The condensate water guiding structure of the smoothie machine according to claim 2, characterized in that: A sealing gasket (9) is provided between the bottom of the ice-making cylinder (1) and the discharge seat (110), and the sealing gasket (9) is flush with the first drain outlet (103.1).

5. The condensate water guiding structure of the smoothie machine according to claim 4, characterized in that: The discharge seat (110) is provided with a sealing groove (111.3), and the sealing gasket (9) is embedded in the sealing groove (111.3) and is flush with the opening of the sealing groove (111.3); The lower end of the ice cup (200) abuts against the upper surface of the sealing gasket (9).

6. The condensate water guiding structure of the smoothie machine according to claim 2, characterized in that: The internal drainage structure includes a water receiving seat (12) located below the discharge seat (110) and inside the main unit (100) for receiving condensate dripping from the bottom of the discharge seat (110); The water receiving base (12) is provided with a second drain outlet (12.2) and is connected to the drain pipe (10).

7. The condensate water guiding structure of the smoothie machine according to claim 6, characterized in that: A second condensate channel (104) is provided around the first condensate channel (103). The second condensate channel (104) is an arc-shaped groove, and a third drain outlet (104.1) is provided inside the second condensate channel (104).

8. The condensate water guiding structure of the smoothie machine according to claim 6, characterized in that: A water guide pipe extends from the first drain outlet (103.1) toward the second drain outlet (12.2), and a gap is formed between the water guide pipe and the edge of the second drain outlet (12.2).

9. The condensate water guiding structure of the smoothie machine according to claim 6, characterized in that: The discharge seat (110) includes a discharge base (111) and a discharge cover (112). The upper surface of the discharge base (111) forms an ice-receiving surface (a) for receiving ice shavings. The discharge cover (112) has a discharge wall (112.1) that defines the boundary of the ice-receiving surface (a). The water-receiving seat (12) is located below the discharge base (111).

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