Material box structure and smoothie machine

Abstract

The utility model relates to the field of smoothie machines, in particular to a material box structure and a smoothie machine. The material box structure comprises a feeding assembly, the feeding assembly comprises a feeding bin, a cover plate assembly and a third sealing part, the feeding bin is provided with a feeding port communicated with an ice making cavity, and when the cover plate assembly is closed, the third sealing part shields the feeding port so that the ice making cavity can be in a sealed state. According to the ice making machine, the feeding assembly communicated with the ice making cavity and the cover plate assembly used for shielding the feeding assembly are arranged, the third sealing piece is additionally arranged between the feeding bin and the cover plate assembly, double guarantees are formed through cooperation of the cover plate assembly and the third sealing piece, and external impurities are prevented from entering the ice making cavity through the feeding assembly; in addition, when the cover plate assembly is closed, the third sealing piece can effectively shield the feeding port, it is ensured that the ice making cavity can reach a good sealing state, and therefore the heat preservation effect in the ice making cavity is enhanced.

Description

TECHNICAL FIELD

[0001] The utility model relates to the field of ice blender, concretely is a material box structure and ice blender. BACKGROUND

[0002] With the growth of healthy lifestyle and cold drink consumption trends, the ice blender has become a common device in the family kitchen and catering places. However, in some ice blenders on the current market, especially in the ice making process, there are still some problems in the sealing aspect. First, the current ice blender lacks sealing or the sealing effect is not ideal between the material box and the ice making cavity, which makes it easy for foreign matter from the outside to enter the ice making cavity, which directly affects the purity and sanitary conditions of the ice slurry. In addition, if the sealing effect of the ice making cavity is not ideal, it will also affect the heat preservation effect in the ice making cavity, causing the accelerated melting of ice cubes.

[0003] Therefore, it is necessary to develop a material box structure and ice blender to solve the problem of insufficient sealing of the material box structure during the ice making process. UTILITY MODEL CONTENT

[0004] In view of the above-mentioned problem of insufficient sealing of the material box structure in the prior art, the technical solution adopted by the utility model to solve its technical problem is:

[0005] A material box structure, comprising an inlet assembly in communication with an ice making cavity, wherein the inlet assembly comprises an inlet bin for providing ice slurry raw materials for the ice making cavity, a cover plate assembly for shielding the inlet bin, and a third sealing element located between the inlet bin and the cover plate assembly, the inlet bin is provided with an inlet opening in communication with the ice making cavity, and when the cover plate assembly is closed, the third sealing element shields the inlet opening to make the ice making cavity in a sealed state.

[0006] Further, the material box structure according to the scheme, wherein the cover plate assembly is provided with a rotating connection part located on one side and used for rotating connection with the inlet bin, and a sealing element fixing end located on the side close to the inlet bin and used for fixing the third sealing element, and the third sealing element is provided in a flared opening on the side close to the inlet opening.

[0007] Further, the material box structure according to the scheme, wherein the inlet bin further comprises a first inlet bin rotatingly connected with the cover plate assembly, and a second inlet bin fixed on the inner side of the first inlet bin, and the first inlet bin and the second inlet bin are detachably connected.

[0008] Further, the scheme discloses a material box structure, wherein the second material inlet bin is additionally provided with a material inlet bin end face connected with the material inlet, the third sealing element is provided with a third sealing part used for shielding the material inlet, the third sealing part has a height S1, the height S1 is greater than a height S2 from a lower end face of the sealing element fixed end to the material inlet bin end face after the cover plate assembly is closed, and the material inlet bin end face is in a conical cross section.

[0009] Further, the scheme discloses a material box structure, wherein the second material inlet bin is additionally provided with a material inlet bin end face connected with the material inlet, the third sealing element is provided with a third sealing part used for shielding the material inlet, the third sealing part has a height S1, the height S1 is greater than a height S2 from a lower end face of the sealing element fixed end to the material inlet bin end face after the cover plate assembly is closed, and the material inlet bin end face is in a conical cross section.

[0010] Further, the scheme discloses a material box structure, wherein the second material inlet bin is additionally provided with a material inlet bin end face connected with the material inlet, the third sealing element is provided with a third sealing part used for shielding the material inlet, the third sealing part has a height S1, the height S1 is greater than a height S2 from a lower end face of the sealing element fixed end to the material inlet bin end face after the cover plate assembly is closed, and the material inlet bin end face is in a conical cross section.

[0011] Further, the scheme discloses a material box structure, wherein the second material inlet bin is additionally provided with a material inlet bin end face connected with the material inlet, the third sealing element is provided with a third sealing part used for shielding the material inlet, the third sealing part has a height S1, the height S1 is greater than a height S2 from a lower end face of the sealing element fixed end to the material inlet bin end face after the cover plate assembly is closed, and the material inlet bin end face is in a conical cross section.

[0012] Further, the scheme discloses a material box structure, wherein the second material inlet bin is additionally provided with a material inlet bin end face connected with the material inlet, the third sealing element is provided with a third sealing part used for shielding the material inlet, the third sealing part has a height S1, the height S1 is greater than a height S2 from a lower end face of the sealing element fixed end to the material inlet bin end face after the cover plate assembly is closed, and the material inlet bin end face is in a conical cross section.

[0013] Further, the scheme discloses a material box structure, wherein the second material inlet bin is additionally provided with a material inlet bin end face connected with the material inlet, the third sealing element is provided with a third sealing part used for shielding the material inlet, the third sealing part has a height S1, the height S1 is greater than a height S2 from a lower end face of the sealing element fixed end to the material inlet bin end face after the cover plate assembly is closed, and the material inlet bin end face is in a conical cross section.

[0014] Further, the scheme discloses a material box structure, wherein the second material inlet bin is additionally provided with a material inlet bin end face connected with the material inlet, the third sealing element is provided with a third sealing part used for shielding the material inlet, the third sealing part has a height S1, the height S1 is greater than a height S2 from a lower end face of the sealing element fixed end to the material inlet bin end face after the cover plate assembly is closed, and the material inlet bin end face is in a conical cross section.

[0015] The ice slurry machine has the following beneficial effects:

[0016] The utility model discloses a cover plate component and third sealing piece are added between the material inlet bin and the cover plate component, and the cooperation of the cover plate component and the third sealing piece forms double protection, prevents the outside impurity from entering the ice making cavity through the material inlet component, in addition, when the cover plate component is closed, the third sealing piece can effectively shield the material inlet, ensures that the ice making cavity can reach a good sealing state, thereby the heat preservation effect in the ice making cavity is enhanced.

[0017] The utility model will be further described below in combination with the drawings and specific embodiment. DRAWINGS

[0018] Figure 1 It is a material box structure appearance schematic drawing of the utility model.

[0019] Figure 2 It is a material box structure explosion schematic drawing of the utility model.

[0020] Figure 3 It is a material box structure appearance schematic drawing of the utility model.

[0021] Figure 4 It is a cover plate component appearance schematic drawing of the material box structure of the utility model.

[0022] Figure 5 It is a material inlet bin explosion schematic drawing of the material box structure of the utility model.

[0023] Figure 6 It is a material box structure cross section schematic drawing of the utility model.

[0024] Figure 7 It is the I part enlarged schematic drawing of the material box structure of the utility model.

[0025] Figure 8 It is a material box structure explosion schematic drawing of the utility model.

[0026] Figure 9 It is the II part enlarged schematic drawing of the material box structure of the utility model.

[0027] Figure 11 It is the appearance schematic drawing of the ice slurry machine of the utility model. SPECIFIC EMBODIMENT

[0028] The embodiment of the utility model is explained in detail below in combination with the drawings.

[0029] As Figures 1-10The diagram shows a material box structure, including a feeding assembly 3 communicating with an ice-making chamber. The feeding assembly 3 includes a feeding bin 32 for providing ice slush raw materials to the ice-making chamber, a cover assembly 33 for covering the feeding bin 32, and a third sealing member 331 located between the feeding bin 32 and the cover assembly 33. The feeding bin 32 is provided with an inlet 3221 communicating with the ice-making chamber. When the cover assembly 33 is closed, the third sealing member 331 covers the inlet 3221 to keep the ice-making chamber sealed.

[0030] This invention provides a feeding assembly 3 connected to the ice-making chamber, a cover assembly 33 for shielding the feeding assembly 3, and a third sealing element 331 between the feeding chamber 32 and the cover assembly 33. The cooperation of the cover assembly 33 and the third sealing element 331 forms a double protection, preventing external impurities from entering the ice-making chamber through the feeding assembly 3. In addition, when the cover assembly 33 is closed, the third sealing element 331 can effectively shield the feeding port 3221, ensuring that the ice-making chamber can achieve a good sealing state, thereby enhancing the heat preservation effect inside the ice-making chamber.

[0031] Specifically, in this invention, when the cover assembly 33 is closed, the third sealing element 331 can tightly fit the inlet 3221. This setting not only prevents external impurities from entering the ice-making chamber, but more importantly, it provides a sealing condition for the inlet 3221, thereby ensuring the temperature stability during the ice-making process in the ice-making chamber, effectively slowing down the melting speed of the ice cubes and maintaining the best taste and texture of the shaved ice. Furthermore, in some embodiments, the cover assembly 33 can be directly fixed to the inlet hopper 32 on all four sides, thereby connecting with the inlet hopper 32. Furthermore, in other embodiments, one side of the cover assembly 33 can be rotatably connected to the inlet hopper 32 via a hinge, while the other side is set as a structure that can be fixed to the inlet hopper 32. This setting allows the user to open and close the inlet hopper 32 without completely removing the cover, which is convenient for adding raw materials or performing daily maintenance.

[0032] Furthermore, such as Figures 1-10 The illustrated material box structure includes a cover plate assembly 33 having a rotating connection part 332 located on one side for rotatably connecting with the feed bin 32, and a sealing member fixing end 333 located near the feed bin 32 for fixing the third sealing member 331, wherein the third sealing member 331 is flared on the side near the feed inlet 3221.

[0033] The utility model discloses a be provided with the rotation connecting portion 332 for being connected with the feeding bin 32 rotation on the one side of the cover plate subassembly 33, and this setting guarantees that the cover plate subassembly 33 can be flexible and open and close, and it is convenient for user to add the ice sand raw material, further, through being provided with the sealing piece fixed end 333 for fixing third sealing piece 331 on the one side of the cover plate subassembly 33 located close to the feeding bin 32, and cooperate with the cover plate subassembly 33 of feeding bin 32 rotation connection, ensure that good sealing can be realized to feeding inlet 3221 after each time closing, prevent the impurity of outside from entering the ice making cavity, improve the sanitary condition in the ice sand preparation process, further, through the third sealing piece 331 close to the feeding inlet 3221 one side is set into the horn mouth shape, when the cover plate subassembly 33 is closed, third sealing piece 331 can be more closely fitted the edge of feeding inlet 3221 under the action of horn mouth, further strengthen the sealing effect.

[0034] Further, as shown in a kind of material box structure shown in Figures 1-10 Wherein the feeding bin 32 further includes the first feeding bin 321 rotatably connected with the cover plate subassembly 33, and the second feeding bin 322 fixed inside the first feeding bin 321, the first feeding bin 321 and the second feeding bin 322 are detachably connected.

[0035] The utility model discloses a feeding bin 32 is set to the first feeding bin 321 and the second feeding bin 322 of detachable connection, in the embodiment, the first feeding bin 321 is connected with ice making cavity, and there are many steps to disassemble the first feeding bin 321, and ice sand raw material is placed in the second feeding bin 322, so by detachable second feeding bin 322, so that user can separately disassemble second feeding bin 322 to clean, to facilitate the cleaning and maintenance of second feeding bin 322 for user.

[0036] Further, as shown in a kind of material box structure shown in Figures 1-10 Wherein the second feeding bin 322 is further provided with a feeding bin end face 3223 connected with the feeding inlet 3221, the third sealing piece 331 is provided with a third sealing portion 3311 for shielding the feeding inlet 3221, the third sealing portion height S1 is greater than the height S2 from the sealing piece fixed end 333 lower end face to the feeding bin end face 3223 after the cover plate subassembly 33 is closed, and the feeding bin end face 3223 is conically arranged.

[0037] The utility model discloses a third sealing part 3311 is set up, and the height S1 of third sealing part 3311 is greater than the height S2 of the lower end surface of sealing piece fixed end 333 to the end surface 3223 of inlet bin, and third sealing part 3311 has certain deformation elasticity, when the cover plate subassembly 33 is closed, because the height of third sealing part 3311 exceeds the distance from the lower end surface of sealing piece fixed end 333 to the end surface 3223 of inlet bin, third sealing part 3311 will be subjected to additional pressure and elastically deformed, so that third sealing part 3311 and inlet 3221 are more closely contacted, thereby effectively prevent the outside impurities from entering the ice making cavity, and the heat preservation effect in the ice making cavity is ensured, further, this setting can also ensure that third sealing part 3311 can be more closely attached to the edge of inlet 3221, ensure that third sealing part 3311 can still effectively shield inlet 3221, maintain excellent sealing performance, and the reliability of sealing is enhanced, further, through the taper of the end surface 3223 cross section, after the smoothie raw material enters the second inlet bin 322 inner chamber, the smoothie raw material can slide along the end surface 3223 to inlet 3221, thereby ensuring the smooth flow of smoothie raw material.

[0038] Further, as shown in a material box structure, Figures 1-10 Wherein the inlet assembly 3 further comprises an inlet pipe 31 in sealing connection with the inlet 3221, and the inlet pipe 31 communicates the inner chamber of the inlet bin 32 and the ice making cavity.

[0039] The utility model discloses an inlet pipe 31 in sealing connection with the inlet 3221 is additionally arranged in the inlet assembly 3, so that the inlet bin 32 can be directly connected with the ice making cavity through the inlet pipe 31, and a direct and sealed channel is formed between the inner chamber of the inlet bin 32 and the ice making cavity, which not only simplifies the transmission path of the smoothie raw material from the inlet bin 32 to the ice making cavity, improves the efficiency, but also enhances the sealing performance, effectively prevents the outside impurities from entering the ice making cavity through the transmission path between the inner chamber of the inlet bin 32 and the ice making cavity, and ensures the sanitary conditions in the preparation process, further, through the arrangement of the inlet pipe 31, even in the case of equipment shaking or tilting, good sealing effect can be maintained, and the stability and reliability of the ice making process are further improved.

[0040] Further, as shown in a material box structure, Figures 1-10As shown in a material box structure, the material inlet 3221 is arranged on the second material bin 322, the first material bin 321 is also provided with a material inlet avoiding port 3211 for the material inlet 3221 to extend into, the material feeding assembly 3 further comprises a fourth sealing piece 34 fixed on the material inlet 3221, and a fifth sealing piece 35 fixed on the material feeding pipe 31 close to the second material bin 322, and the fourth sealing piece 34 and the fifth sealing piece 35 are arranged to seal the material feeding pipe 31 between the material inlet 3221 and the material inlet avoiding port 3211.

[0041] The utility model discloses a material feeding pipe 31 is arranged on the second material bin 322, and the first material bin 321 is also provided with a material inlet avoiding port 3211 for the material inlet 3221 to extend into, the material feeding assembly 3 further comprises a fourth sealing piece 34 fixed on the material inlet 3221, and a fifth sealing piece 35 fixed on the material feeding pipe 31 close to the second material bin 322, and the fourth sealing piece 34 and the fifth sealing piece 35 are arranged to seal the material feeding pipe 31 between the material inlet 3221 and the material inlet avoiding port 3211.

[0042] Further, as shown in a material box structure, the material feeding pipe 31 is also provided with a sixth sealing piece 312 for sealing with the equipment and a connecting piece 313 for connecting with the equipment, the connecting piece 313 is provided with a positioning groove 3131, and the material feeding pipe 31 is also provided with a positioning protruding part 314 matched with the positioning groove 3131. Figures 1-10

[0043] ​The utility model discloses a sixth sealing piece 312 for being sealed with equipment is set to the one end of inlet pipe 31 far from inlet bin 32, further ensure the sealing property in the process that slush raw material is transmitted from inlet pipe 31 to ice making cavity, this setting not only prevents outside impurity and air from entering ice making cavity, maintains the cleanness and health of ice making cavity, and effectively keeps the temperature stability in ice making cavity, avoids the ice block to melt in advance due to external heat influence, thereby guarantee the quality and taste of slush, further, the utility model discloses still set up the connecting piece 313 for being connected with equipment to the one end of inlet pipe 31 far from inlet bin 32, and the connecting piece 313 is equipped with positioning groove 3131, and inlet pipe 31 is correspondingly equipped with the positioning protruding portion 314 that cooperates with positioning groove 3131, this setting realizes the accurate positioning and stable connection between inlet pipe 31 and equipment, ensures that even in the use process under external force action, also can not appear the situation of loosening or separation, further, through the cooperation of positioning groove 3131 and positioning protruding portion 314 can also simplify the installation process, improve the assembly efficiency.

[0044] Further, as shown in a kind of material box structure shown in Figures 1-10 Wherein the second inlet bin 322 both sides are also provided with a scraping opening 3224, the first inlet bin 321 is also provided with an avoidance slot 3212 on the side close to the scraping opening 3224, and the inlet 3221 is provided with a plurality of parallelly arranged blocking parts 3222.

[0045] The utility model discloses a scraping opening 3224 is arranged on the both sides of the second inlet bin 322, and an avoidance slot 3212 is arranged on the side of the first inlet bin 321 close to the scraping opening 3224, to provide a structure for the user to disassemble the second inlet bin 322 more conveniently, so that the user can easily take out the second inlet bin 322 from the first inlet bin 321 through the scraping opening 3224 for cleaning or adding raw materials, which not only improves the operation convenience of the user, but also ensures that the second inlet bin 322 can be cleaned and maintained conveniently even in a small space.

[0046] Further, as shown in a kind of material box structure shown in Figures 1-10 Wherein the cover plate assembly 33 is also provided with a first buckle part 334 on the side opposite to the rotating connecting part 332, the inlet bin 32 is also provided with a second buckle part 323 matched with the first buckle part 334, and the cover plate assembly 33 is also provided with a handle part 335 on the side of the first buckle part 334.

[0047] The utility model discloses a first buckle part 334 is arranged on the opposite side of cover plate subassembly 33 at rotary joint part 332, and the second buckle part 323 that cooperates with first buckle part 334 is equipped on the material inlet bin 32, realizes the quick locking and unlocking function between cover plate subassembly 33 and material inlet bin 32, and this setting simplifies the opening and closing operation of cover plate subassembly 33, makes the user more conveniently add raw material or check internal condition, further, still be provided with handle part 335 on the side of first buckle part 334 of cover plate subassembly 33, further enhances the operation experience of user, makes the user more easily open or close cover plate subassembly 33.

[0048] Further, as shown in the smoothie maker, it includes a material box structure. Figures 1-11

[0049] The utility model discloses a material box structure and the combination use of smoothie maker make in the ice making process of smoothie maker, the material inlet assembly 3 in material box structure, cover plate subassembly 33 and third sealing piece 331 work together, ensure the effective isolation of ice making cavity and external environment, thereby solve the deficiency of traditional smoothie maker in the aspect of sealing, further, concretely speaking, when cover plate subassembly 33 is closed, cover plate subassembly 33 cooperates with third sealing piece 331, can effectively shield material inlet 3221, make ice making cavity maintain in a highly sealed state, this setting effectively reduces the possibility of the invasion of external impurity, guarantees the purity and sanitary condition of the ice slush drink prepared, meets the requirement of modern consumer to healthy diet, further, good sealing performance also strengthens the heat preservation effect in ice making cavity, slows down the melting speed of ice block, and this is crucial for keeping the ideal texture and taste of ice slush.

[0050] As shown in the smoothie maker, it includes a material box structure. Figures 1-11 The embodiments of the utility model are as follows:

[0051] Embodiment one:

[0052] The embodiment provides a material box structure, and the purpose of the material box structure is to optimize the sealing performance of ice making cavity and ensure the health and temperature condition of ice slush raw material in the ice making process. The material box structure in the embodiment includes a material inlet assembly 3 connected with the ice making cavity, and the core component part is a material inlet bin 32, a cover plate subassembly 33 and a third sealing piece 331.

[0053] ​When it is necessary to add ice slush raw materials to the ice making cavity, the user can operate the cover plate assembly 33, one side of which is connected to the material inlet bin 32 through a hinge, allowing the cover plate assembly 33 to rotate around the hinge. The other side is arranged in a structure that can be fixed with the material inlet bin 32, so that the cover plate assembly 33 can be conveniently added to the material inlet bin 32 in the open state, and in the closed state, it ensures that it is tightly fitted with the material inlet bin 32 and that the third sealing piece 331 is pressed into the material inlet 3221, thereby sealing the material inlet 3221. This arrangement not only simplifies the user's operation process, but also provides a more stable fixing method, ensuring the sealing of the ice making cavity when it is working.

[0054] In addition, the third sealing piece is located between the cover plate assembly 33 and the material inlet bin 32, and when the cover plate assembly 33 is completely closed, it will tightly fit the material inlet 3221, effectively blocking and sealing the material inlet 3221. This arrangement prevents external air and impurities from entering the ice making cavity, while reducing the loss of cold air on one side of the material inlet bin 32, thereby ensuring the heat preservation effect inside the ice making cavity.

[0055] In addition, in other embodiments, the cover plate assembly 33 can be directly fixed on four sides of the material inlet bin 32, thereby being connected with the material inlet bin 32.

[0056] Embodiment Two:

[0057] This embodiment includes the features of Embodiment One, and the difference from Embodiment One is that in this embodiment, a rotating connection part 332 for rotating connection with the material inlet bin 32 is arranged on one side of the cover plate assembly 33. This arrangement ensures that the cover plate assembly 33 can be flexibly opened and closed, making it convenient for the user to add ice slush raw materials. In addition, by arranging a sealing piece fixing end 333 for fixing the third sealing piece 331 on the side of the cover plate assembly 33 close to the material inlet bin 32, and cooperating with the cover plate assembly 33 rotatingly connected with the material inlet bin 32, it is ensured that each time after closing, it can achieve good sealing of the material inlet 3221, preventing external impurities from entering the ice making cavity and improving the sanitary conditions during the ice slush preparation process. In addition, by arranging the side of the third sealing piece 331 close to the material inlet 3221 in a trumpet shape, when the cover plate assembly 33 is closed, the third sealing piece 331 can more tightly fit the edge of the material inlet 3221 under the action of the trumpet, further enhancing the sealing effect.

[0058] Embodiment Three:

[0059] The embodiment includes the features of embodiment two, and is different from embodiment two in that the first and second detachable feed bins 321 and 322 are provided in the embodiment. In the embodiment, the first feed bin 321 is connected to the ice making cavity, and there are many steps to detach the first feed bin 321. The smoothie raw materials are placed in the second feed bin 322, so that the user can detach the second feed bin 322 for cleaning, thereby facilitating the user to clean and maintain the second feed bin 322.

[0060] Embodiment four:

[0061] The embodiment includes the features of embodiment three, and is different from embodiment three in that the height S1 of the third sealing portion 3311 is greater than the height S2 from the lower end surface of the sealing piece fixed end 333 to the feed bin end surface 3223 after the cover plate assembly 33 is closed, and the third sealing portion 3311 has a certain elastic deformation. When the cover plate assembly 33 is closed, the third sealing portion 3311 will be elastically deformed due to the additional pressure caused by the height of the third sealing portion 3311 exceeding the distance from the lower end surface of the sealing piece fixed end 333 to the feed bin end surface 3223, so that the third sealing portion 3311 is in closer contact with the feed inlet 3221, thereby effectively preventing foreign matter from entering the ice making cavity and ensuring the heat preservation effect in the ice making cavity. In addition, this setting also ensures that the third sealing portion 3311 can be more closely attached to the edge of the feed inlet 3221, ensuring that the third sealing portion 3311 can effectively block the feed inlet 3221 and maintain excellent sealing performance even if the sealing piece is slightly worn after long-term use, and the reliability of the sealing is enhanced. In addition, through the setting of the conical cross section of the feed bin end surface 3223, the smoothie raw materials can slide along the feed bin end surface 3223 to the feed inlet 3221 after entering the cavity of the second feed bin 322, thereby ensuring smooth flow of the smoothie raw materials.

[0062] Embodiment five:

[0063] The embodiment includes the features of embodiment four, and is different from embodiment four in that the embodiment adds a feeding pipe 31 in sealing connection with the feeding opening 3221 in the feeding assembly 3, so that the feeding bin 32 can be directly connected with the ice-making cavity through the feeding pipe 31, and a direct and sealed channel is formed between the inner cavity of the feeding bin 32 and the ice-making cavity. This arrangement not only simplifies the transmission path of the ice slush raw materials from the feeding bin 32 to the ice-making cavity, improves the efficiency, but also enhances the sealing performance, effectively prevents foreign matters from entering the ice-making cavity through the transmission path between the inner cavity of the feeding bin 32 and the ice-making cavity, and ensures the sanitary conditions during the preparation process. In addition, by arranging the feeding pipe 31, even in the case of shaking or tilting of the device, good sealing effect can be maintained, further improving the stability and reliability of the ice-making process.

[0064] Embodiment six:

[0065] The embodiment includes the features of embodiment five, and is different from embodiment five in that the embodiment arranges the feeding opening 3221 on the second feeding bin 322, arranges a feeding opening avoiding opening 3211 on the first feeding bin 321 for the feeding opening to extend into, arranges a fourth sealing member 34 on the feeding opening 3221, and arranges a fifth sealing member 35 on the feeding pipe 31 close to the second feeding bin 322, so that the fourth sealing member 34 is pressed between the sidewall of the feeding opening 3221 and the sidewall of the feeding pipe 31, and the fifth sealing member 35 is pressed between the sidewall of the feeding opening avoiding opening 3211 and the sidewall of the feeding pipe 31, to realize the double-sealing connection between the feeding pipe 31 and the feeding opening 3221 and the feeding opening avoiding opening 3211. This arrangement ensures that even in the case of slight deformation or wear of the sealing member during long-term use, excellent sealing performance can still be maintained. In addition, through the cooperation of the fourth sealing member 34 and the fifth sealing member 35, the sealing effect of the entire feeding assembly 3 can be enhanced, thereby providing a better heat preservation environment for the ice-making cavity.

[0066] Embodiment seven:

[0067] This embodiment incorporates features of Embodiment Six, but differs from Embodiment Six in that it further ensures the airtightness of the slush material during its transfer from the feed pipe 31 to the ice-making chamber by providing a sixth sealing element 312 for sealing with the equipment at the end of the feed pipe 31 away from the feed hopper 32. This not only prevents external impurities and air from entering the ice-making chamber, maintaining its cleanliness and hygiene, but also effectively maintains a stable temperature within the ice-making chamber, preventing premature melting of the ice due to external heat, thus ensuring the quality and taste of the slush. Furthermore, this invention also provides a connector 313 for connecting to the equipment at the end of the feed pipe 31 away from the feed hopper 32, with a positioning groove 3131 on the connector 313. Correspondingly, the feed pipe 31 has a positioning protrusion 314 that mates with the positioning groove 3131. This design achieves precise positioning and a secure connection between the feed pipe 31 and the equipment, ensuring that it will not loosen or detach even under external force during use. Furthermore, the cooperation between the positioning groove 3131 and the positioning protrusion 314 simplifies the installation process and improves assembly efficiency.

[0068] Example 8:

[0069] This embodiment incorporates features of Embodiment Seven, but differs from Embodiment Seven in that it provides a more convenient structure for disassembling the second feeding chamber 322 by providing prying openings 3224 on both sides of the second feeding chamber 322 and a clearance groove 3212 on the side of the first feeding chamber 321 near the prying openings 3224. This allows users to easily remove the second feeding chamber 322 from the first feeding chamber 321 through the prying openings 3224 for cleaning or adding raw materials. This design not only improves user convenience but also ensures that the second feeding chamber 322 can be easily cleaned and maintained even in confined spaces. Furthermore, the feeding opening 3221 is provided with multiple parallel baffles 3222, which provide a safety effect, preventing users from accidentally inserting tools or fingers into the feeding channel 311.

[0070] Example 9:

[0071] This embodiment incorporates features of Embodiment Eight, but differs from Embodiment Eight in that it incorporates a first latching part 334 on the side of the cover assembly 33 opposite to the rotating connection part 332, and a second latching part 323 on the feed hopper 32 that engages with the first latching part 334. This achieves quick locking and unlocking between the cover assembly 33 and the feed hopper 32, simplifying the opening and closing operation of the cover assembly 33 and allowing users to add raw materials or check the internal condition more conveniently. Furthermore, a handle 335 is also provided on the side of the first latching part 334 of the cover assembly 33, further enhancing the user experience and making it easier for users to open or close the cover assembly 33.

[0072] Embodiment Ten:

[0073] This embodiment includes the features of Embodiment Nine, and is different from Embodiment Nine in that, in this embodiment, the combination of the material box structure and the smoothie maker is used to ensure that the material inlet assembly 3, the cover plate assembly 33 and the third sealing element 331 in the material box structure work together during the ice-making process of the smoothie maker, so as to effectively isolate the ice-making cavity from the external environment, thereby solving the deficiency of the traditional smoothie maker in the aspect of sealing. Specifically, when the cover plate assembly 33 is closed, the cover plate assembly 33 cooperates with the third sealing element 331 to effectively block the material inlet 3221, so that the ice-making cavity is maintained in a highly sealed state. This arrangement effectively reduces the possibility of external impurities entering, ensures the purity and sanitary conditions of the prepared smoothie beverage, and meets the requirements of modern consumers for healthy diet. In addition, the good sealing performance also enhances the heat preservation effect in the ice-making cavity, slows down the melting speed of the ice cubes, which is crucial for maintaining the ideal texture and taste of the smoothie.

[0074] The above only further illustrates the technical content of the present application with examples, so that the reader can more easily understand, but does not represent that the embodiments of the present application are limited to this, any technical extension or re-creation made according to the present application is also protected by the present application. The protection scope of the present application is subject to the claims.

Claims

1. A cartridge structure comprising a charge assembly (3) in communication with an ice making cavity, characterised in that: The feeding assembly (3) comprises a feeding bin (32) for providing ice slurry raw materials for the ice making cavity, a cover plate assembly (33) for shielding the feeding bin (32), and a third sealing element (331) between the feeding bin (32) and the cover plate assembly (33), the feeding bin (32) is provided with a feeding opening (3221) in communication with the ice making cavity, and the third sealing element (331) shields the feeding opening (3221) when the cover plate assembly (33) is closed, so that the ice making cavity is in a sealed state.

2. A cartridge structure according to claim 1, wherein: The cover plate assembly (33) is provided with a rotating connection part (332) on one side for rotating connection with the feeding bin (32), and a sealing element fixing end (333) on the side close to the feeding bin (32) for fixing the third sealing element (331), and the third sealing element (331) is provided in a trumpet shape on the side close to the feeding opening (3221).

3. A cartridge structure according to claim 2, wherein: The feeding bin (32) further comprises a first feeding bin (321) rotatingly connected with the cover plate assembly (33), and a second feeding bin (322) fixed inside the first feeding bin (321), and the first feeding bin (321) and the second feeding bin (322) are detachably connected.

4. A cartridge structure according to claim 3, wherein: The second feeding bin (322) is further provided with a feeding bin end face (3223) connected with the feeding opening (3221), the third sealing element (331) is provided with a third sealing part (3311) for shielding the feeding opening (3221), the height S1 of the third sealing part is greater than the height S2 from the lower end face of the sealing element fixing end (333) to the feeding bin end face (3223) after the cover plate assembly (33) is closed, and the cross section of the feeding bin end face (3223) is provided in a tapered shape.

5. A cartridge structure according to claim 3, wherein: The feeding assembly (3) further comprises a feeding pipe (31) sealingly connected with the feeding opening (3221), and the feeding pipe (31) communicates the inner cavity of the feeding bin (32) and the ice making cavity.

6. A cartridge structure according to claim 5, wherein: The feeding opening (3221) is arranged on the second feeding bin (322), the first feeding bin (321) is further provided with a feeding opening avoiding opening (3211) for the feeding opening (3221) to extend into, the feeding assembly (3) further comprises a fourth sealing element (34) fixed on the feeding opening (3221), and a fifth sealing element (35) fixed on the side of the feeding pipe (31) close to the second feeding bin (322), and the feeding pipe (31) is sealingly connected between the feeding opening (3221) and the feeding opening avoiding opening (3211) through the fourth sealing element (34) and the fifth sealing element (35).

7. A cartridge structure according to claim 5, wherein: The end of the feeding pipe (31) away from the feeding bin (32) is further provided with a sixth sealing element (312) for sealing with the equipment, and a connecting element (313) for connecting with the equipment, the connecting element (313) is provided with a positioning groove (3131), and the feeding pipe (31) is further provided with a positioning protruding part (314) matched with the positioning groove (3131).

8. The cartridge structure of claim 3, wherein: The second material inlet bin (322) is further provided with a picking opening (3224) on both sides, the first material inlet bin (321) is further provided with an avoiding groove (3212) on the side close to the picking opening (3224), and the material inlet (3221) is provided with a plurality of parallel arranged blocking parts (3222).

9. The cartridge structure of claim 2, wherein: The cover plate assembly (33) is further provided with a first buckle part (334) on the side opposite to the rotating connecting part (332), the material inlet bin (32) is further provided with a second buckle part (323) matched with the first buckle part (334), and the cover plate assembly (33) is further provided with a handle part (335) on the side of the first buckle part (334).

10. A smoothie maker characterised in that: The material box structure comprises a material box body (1) and a cover plate assembly (33) arranged on the material box body (1), wherein the cover plate assembly (33) is arranged on the material box body (1) through a rotating connecting part (332), the material box body (1) is provided with a material inlet bin (32) and a second material inlet bin (322), the material inlet bin (32) is provided with a first material inlet bin (321) and a second material inlet bin (322), the first material inlet bin (321) is provided with a first material inlet (3211) and a second material inlet (3212), the second material inlet bin (322) is provided with a second material inlet (3221) and a third material inlet (3222), the first material inlet bin (321) is arranged on the side of the second material inlet bin (322), the cover plate assembly (33) is arranged on the material box body (1) through the rotating connecting part (332), the cover plate assembly (33) is provided with a first cover plate (331)

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