New Shake Machine

Abstract

We offer a new type of shake machine that enables the rapid removal of material buckets, significantly reducing the time required for cleaning, maintenance, and material replacement. [Solution] The new shake machine includes a mounting case 1, a lock assembly 4 provided at the rear end of the mounting case, a mounting groove provided in the mounting case, a removable material bucket 3 provided in the mounting groove, the material bucket connected to the lock assembly, a discharge assembly 5 provided in front of the material bucket, a stirring assembly provided inside the mounting case, the stirring assembly located inside the material bucket, a front plate provided at the bottom of the front of the mounting case, a control panel provided on the front plate, a machine base provided at the bottom of the front plate, and a cooling assembly provided on the machine base. The material bucket works in cooperation with the lock assembly, which is driven by an inverted U-shaped handle, through sliding fitting between the guide block and the guide groove, and locking or unlocking is completed simply by pushing the material bucket and rotating the operating handle.

Description

Technical Field

[0001] The present invention relates to the technical field of shake machines, and particularly to a new type of shake machine.

Background Art

[0002] In the food and beverage industry, as a core equipment for making shaved ice and cold drinks, the convenience of use, food safety, and assembly efficiency of shake machines directly affect the user experience and production efficiency. However, currently, there are still many problems to be solved in the structural design of conventional shake machines, mainly manifested in the following three points.

[0003] First, there are defects in the installation of the material bucket and the design of condensate treatment. Many of the material buckets of conventional shake machines adopt a fixed installation structure, which cannot achieve quick removal, making the operations during cleaning, maintenance, or raw material replacement of the material bucket in the later stage cumbersome and time-consuming. At the same time, when the shake machine is operating, the low temperature generated from the cooling assembly is transmitted to the surfaces of the material bucket and the adjacent mounting case, and the water vapor in the air is cooled to form condensate. Conventional equipment lacks a dedicated condensate diversion and collection structure, and the irregular dripping of condensate easily pollutes the surrounding environment of the equipment, and may even penetrate into the equipment and affect the lifespan of electrical components, increasing the risk of equipment failure.

[0004] Next, designing an exhaust system that is practical, safe, and economically viable is difficult. Currently, mainstream dispensing mechanisms are mainly classified into two types. One is a vertical-movement type with a double link mechanism. While it has the advantages of a simple structure and low manufacturing cost, it has a fatal flaw in actual use. Cold beverage ingredients often contain sticky components such as sugar and milk fat, so material tends to remain on the surface of the mechanism after each dispensing. These residues gradually accumulate and solidify, allowing bacteria to multiply and seriously threatening food safety. This also creates significant resistance to movement, making the operation feel heavy for the user. In severe cases, it can cause the mechanism to seize or lock up, drastically shortening the lifespan of the equipment and degrading the user experience. The other is a three-link rotation mechanism. The coordinated action of two rotating members and links enables smooth dispensing operation, effectively avoiding resistance problems due to material residue and improving the user experience. However, its complex transmission structure significantly increases the number of parts and greatly raises the requirements for assembly precision, directly leading to increased manufacturing costs. At the same time, the complex structure increases the difficulty and cost of later maintenance, making it unfavorable for large-scale deployment of the equipment.

[0005] Finally, the capacitor mounting method saves production efficiency. Conventional shake machines rely on screw fastening for capacitor mounting, and during assembly, it is necessary to align the screw holes on the capacitor and the equipment frame one by one and tighten the fastening components sequentially using tools. The entire mounting process is complicated and time-consuming, which tends to greatly reduce the overall assembly efficiency of the shake machine, especially in mass production situations, increasing the company's production time costs and labor costs, and making it difficult to meet the demand for high efficiency in scaled production. [Overview of the project] [Problems that the invention aims to solve]

[0006] The purpose of this invention is to provide a new type of snow melting machine that has a rational design and can solve the shortcomings and deficiencies of conventional technology. [Means for solving the problem]

[0007] To achieve the above objective, the present invention provides the following technical solution: a mounting case is provided, a lock assembly is provided at the rear end of the mounting case, a mounting groove is provided in the mounting case, a removable material bucket is provided in the mounting groove, the material bucket is connected to the lock assembly, a discharge assembly is provided in front of the material bucket, a stirring assembly is provided inside the mounting case, the stirring assembly is located inside the material bucket, a front plate is provided at the bottom of the front of the mounting case, a control panel is provided on the front plate, a machine base is provided at the bottom of the front plate, a cooling assembly is provided on the machine base, side heat sinks are provided on both sides of the mounting case and the machine base, and rear heat sinks are provided on the backs of both the mounting case and the machine base.

[0008] Preferably, the inner bottom surface of the mounting groove is inclined, a drainage groove is provided on the side where the inner bottom surface of the mounting groove is lower, a drainage hole is provided in the middle of the drainage groove, a drain pipe is provided at the bottom of the drainage hole, a conduit is provided at the top of the machine base at a position corresponding to the drain pipe, an insertion groove is provided at the front end of the machine base, the conduit is connected to the insertion groove, a water receiving tray is provided in front of the front plate, and one side of the water receiving tray is inserted into the insertion groove.

[0009] Preferably, guide grooves are provided symmetrically on the inner walls of both sides of the mounting groove, a pair of guide blocks are provided horizontally on both sides of the material bucket at positions corresponding to the guide grooves, a discharge port is provided on one side of the material bucket, mounting plates are provided symmetrically on both sides of the discharge port, the discharge assembly is provided between the two mounting plates, a dust cover is provided on the same side of the material bucket, the dust cover is placed over the outside of the two mounting plates, and the material bucket is far from the discharge assembly A bucket lid is welded to one side of the material bucket, a triangular rib is provided around the edge of the side of the material bucket that is in close contact with the bucket lid, a concave fitting groove is made at a position corresponding to the triangular rib on the bucket lid, the triangular rib is provided within the concave fitting groove, a plurality of engagement grooves are made on the outer wall of the side of the material bucket that is in close contact with the bucket lid, a convex block is provided at a position corresponding to the engagement groove on the side of the bucket lid, the convex block is inserted into the engagement groove, and a loading lid is provided on one side of the top of the material bucket.

[0010] Preferably, a pair of first shaft blocks are provided symmetrically on the outer walls on both sides of the mounting case, with the two first shaft blocks each located behind the rear ends of two guide grooves, and a pair of second shaft blocks are further provided symmetrically on the outer walls on both sides of the mounting case, with the two second shaft blocks each located behind the two first shaft blocks, and a limit rod is provided above each of the second shaft blocks.

[0011] Preferably, the lock assembly comprises an inverted U-shaped operating handle, with rotating discs symmetrically positioned at the bottom of both sides of the inverted U-shaped handle, the rotating discs movably mounted on a second shaft block, the rotating discs having arc grooves, the limit rods being mounted within the arc grooves, a pair of first transmission plates symmetrically mounted at the front end of the rotating discs, a pin rod being mounted between the two first transmission plates, lock hooks movably mounted on both of the two first shaft blocks, a second transmission plate being mounted at the rear end of the lock hooks, the second transmission plate having movable grooves, the pin rods being mounted within the movable grooves, and a pair of symmetrically positioned protrusions on both sides of the material bucket corresponding to the lock hooks.

[0012] Preferably, the discharge assembly includes an operating handle, an inverted L-shaped pressing plate provided at the bottom of the operating handle, a pair of fixing plates provided at the bottom of the inverted L-shaped pressing plate, a second shaft rod provided between the two fixing plates, fixing cylinders provided simultaneously at the tops of the two fixing plates, first shaft rods provided symmetrically on both sides of the fixing cylinders, a discharge port pressing plate provided below the two fixing plates, a sealing plug provided on the front of the discharge port pressing plate, and a third shaft rod provided at the top of the discharge port pressing plate. A transmission member is provided on the back of the third shaft rod, an elliptical groove is made in the transmission member, the transmission member is located between two fixed plates, and the second shaft rod is movably provided within the elliptical groove, both the first shaft rod and the third shaft rod are movably provided between two mounting plates, torsion springs are fitted simultaneously on both sides of the fixed cylinder, one side of the torsion springs abuts against the bottom of an inverted L-shaped pressing plate, and the other side of the torsion springs abuts against the outer wall of the material bucket and is located above the discharge port.

[0013] Preferably, the stirring assembly includes a fixed disc provided on the back of a mounting groove, a cooling cylinder fixed to the front of the fixed disc by a plurality of screws, the cooling cylinder located within the mounting groove, a seal bearing provided within the wall on one side of the cooling cylinder furthest from the fixed disc, a drive reducer provided on the back of the fixed disc, a transmission shaft provided at the transmission end of the drive reducer, the transmission shaft provided inside the cooling cylinder and one end thereof provided inside the seal bearing, a base fitted to the outside of the cooling cylinder, and a plurality of supports on the base A rod is provided, a pair of spiral blades are simultaneously arranged around the outside of a plurality of support rods, a discharge plate is provided at the top end of each spiral blade, a connecting sleeve is provided between the top ends of the two discharge plates, the connecting sleeve is provided at the top end of the transmission shaft, a seal washer is provided on the inner wall of the mounting groove, the seal washer is fitted on the outside of the cooling cylinder, and the bucket lid is in contact with the seal washer, the discharge plate has a structure that is narrow at the front and wide at the back, and a pair of protrusions are provided at the top end of the connecting sleeve.

[0014] Preferably, a plurality of limit rings are provided on the top of the aircraft base, a mounting column is provided within each of the limit rings, a pair of rectangular grooves are provided on one side of the aircraft base, and a pair of U-shaped ribs are further provided on one side of the top of the aircraft base.

[0015] Preferably, the cooling assembly comprises a compressor mounted on the machine base, connecting plates are provided symmetrically on both sides of the bottom of the compressor, and fitting leg covers are provided on the connecting plates at positions corresponding to a plurality of mounting columns, the fitting leg covers are inserted into limit rings and fitted to the outside of the mounting columns and are fixed between the mounting columns and the fitting leg covers by screws, a fan bracket is provided on one side of the compressor, a pair of mounting legs are provided at the bottom of the fan bracket, the two mounting legs are each provided in two rectangular grooves, and the space between the rectangular grooves and the mounting legs is secured by screws The fan is more securely fixed, an air passage is provided within the fan bracket, a mounting frame is provided in front of the air passage, a plurality of screw holes are drilled in the mounting frame, a plurality of semicircular ribs are provided on the back of the mounting frame, each of the plurality of semicircular ribs is provided on one side of the plurality of screw holes, a fan motor is provided on the back of the mounting frame, a fan body is provided at the transmission end of the fan motor, screw columns are provided at positions corresponding to the plurality of semicircular ribs of the fan motor, each of the plurality of screw columns is provided within the plurality of semicircular ribs, and is fixed using screws. Windbreaks are provided symmetrically on both sides of the back of the fan bracket, a condenser is provided between the two windbreaks, fasteners are provided at all four corners of the back of the fan bracket, the condenser is secured to multiple fasteners, drying filters are provided on the two U-shaped ribs, an evaporator is provided inside the cooling cylinder, and the evaporator, compressor, condenser and drying filters are sequentially connected via copper pipes. [Effects of the Invention]

[0016] Compared to conventional technologies, the above-mentioned technical solution of this invention has the following beneficial technical effects. In this invention, the material bucket works in cooperation with a lock assembly driven by an inverted U-shaped handle through the sliding fit of the guide block and guide groove. By simply pushing the material bucket in and rotating the operating handle, locking or unlocking can be completed. Compared to conventional fixed mounting structures, this enables the rapid removal of the material bucket, significantly reducing the time required for cleaning, maintenance, and material replacement. At the same time, the inclined bottom surface of the mounting groove, the drainage groove, and the water tray constitute a complete condensate collection system. Condensate generated in the material bucket and mounting case can be guided and collected in a directional manner, avoiding environmental pollution or equipment damage due to condensate buildup, thus achieving both practicality and environmental cleanliness. 2. The discharge assembly of this invention, through the coordinated design of the shaft rod, transmission member, and torsion spring, allows the sealing plug to be detached from the discharge port simply by pressing the operating handle. When the handle is released, the torsion spring automatically returns each component to its original position. This avoids the sticking and locking phenomenon caused by residual raw material in multi-link mechanisms, ensuring smooth operation. Furthermore, it does not require complex transmission components such as a three-link rotating mechanism, reducing the number of parts and the requirements for assembly precision. This design enhances the user experience and food safety, while effectively controlling manufacturing costs and reducing the difficulty of later maintenance, making it advantageous for large-scale deployment of the equipment. 3. In this invention, in the cooling assembly, the compressor is quickly positioned with respect to the limit ring by the fitting leg cover, the fan bracket mounting legs are directly fitted into the square grooves, and the condenser is secured within the fasteners. Compared to the conventional complete fixing method using screws, there is no need to align each screw hole or tighten with a tool, which greatly simplifies the installation flow of components such as condensers and greatly improves assembly efficiency during mass production. 4. In this invention, the spiral blade and discharge plate rotate synchronously in the stirring assembly, thereby achieving sufficient crushing and stirring of the raw materials. Furthermore, the discharge plate structure, which is narrow at the front and wide at the back, causes the shaved ice to flow in a fixed direction, and in cooperation with the cooling cylinder, it transmits low temperatures uniformly, resulting in shaved ice with a uniform structure and smooth texture, thus ensuring the overall quality of the beverage. 5. The present invention provides a pair of convex points at the top of the connection sleeve, and by contacting the convex points with the inner wall of the material bucket, the contact area between the top of the discharge plate and the material bucket is reduced, preventing the freezing of the stirring blades by scraping ice, and at the same time, the noise generated during the rotation of the stirring blades can be reduced.

Brief Description of the Drawings

[0017] [Figure 1] It is a schematic diagram of the overall structure according to the present invention. [Figure 2] It is a schematic diagram of the structure when the side heat dissipation plate and the rear heat dissipation plate according to the present invention are removed as a whole. [Figure 3] It is a schematic diagram of the structure of the mounting case according to the present invention. [Figure 4] It is a schematic diagram of the structure when the mounting case and the stirring assembly are assembled according to the present invention. [Figure 5] It is a schematic diagram of the structure from the rear lower perspective of the structure in FIG. 4. [Figure 6] It is a schematic diagram of the stirring assembly structure according to the present invention. [Figure 7] It is a schematic diagram of the structure when the material bucket and the discharge assembly are assembled according to the present invention. [Figure 8] It is a schematic diagram of the structure of the material bucket according to the present invention. [Figure 9] It is a schematic diagram of the structure when the bucket lid of the material bucket is unfolded according to the present invention. [Figure 10] It is a front sectional view of the structure in FIG. 7. [Figure 11] It is an enlarged view of part A in FIG. 10. [Figure 12] It is a schematic diagram of the structure when the dust cover is removed from the material bucket according to the present invention. [Figure 13] It is a schematic diagram of the structure of the discharge assembly according to the present invention. [Figure 14] It is an exploded schematic diagram of the discharge assembly according to the present invention. [Figure 15] It is a schematic diagram of the structure of the lock assembly in the locked state according to the present invention. <00001​This is a schematic diagram of the structure of the lock assembly according to the present invention in the unlocked state. [Figure 17] This is a schematic diagram of the structure of the lock assembly according to the present invention. [Figure 18] This is a schematic diagram of the lock assembly according to the present invention. [Figure 19] This is a schematic diagram of the cooling assembly and the airframe base assembly according to the present invention. [Figure 20] This is a schematic diagram of the structure shown in Figure 19, viewed from the other side. [Figure 21] This is a schematic diagram of the structure when the fan bracket and capacitor are assembled according to the present invention. [Figure 22] This is a schematic diagram of the structure of the fan bracket according to the present invention. [Figure 23] This is a schematic diagram of the structure of the fan bracket and fan motor according to the present invention. [Figure 24] This is a schematic diagram of the structure of the aircraft base according to the present invention. [Figure 25] This is a schematic diagram of the structure when the machine base and compressor are assembled according to the present invention. [Figure 26] This is a schematic diagram of the structure of the machine base and compressor in their deployed state according to the present invention. [Figure 27] This is a schematic diagram of the structure of the bottom of the aircraft base according to the present invention, viewed from a specific angle. [Modes for carrying out the invention]

[0018] The following describes, in conjunction with the drawings of embodiments of the present invention, the technical solutions in embodiments of the present invention clearly and completely. The embodiments described are not all embodiments, but rather some embodiments of the present invention. All other embodiments obtained by those skilled in the art without creative work based on embodiments of the present invention fall within the scope of the present invention.

[0019] As shown in Figure 1-27, the new shake machine according to this invention has two main bodies, the mounting case 1 and the machine base 2, which are fixedly connected via bolts. A mounting groove 11 is opened on the front of the mounting case 1, guide grooves 12 are machined symmetrically on both sides inside the tank, guide blocks 32 are horizontally welded to both sides of the material bucket 3, the guide blocks 32 slide and fit into the guide grooves 12, enabling the removable insertion of the material bucket 3 into the mounting groove 11, the inner bottom surface of the mounting groove 11 is designed to be inclined, a drainage groove 13 is opened on the lower side, a drain hole 19 passes through the middle of the groove, a drain pipe 14 is provided at the bottom of the drain hole 19 and is flush with a conduit 24 at the top of the machine base 2, the conduit 24 extends to an insertion groove 23 at the front end of the machine base 2, and the insertion groove 23 is used for insertion into the water tray 8. A bucket lid 34 is welded to one side of the material bucket 3, a triangular rib 35 is provided on the edge of the bucket body that is in close contact with the bucket lid 34, a concave fitting groove 36 is made at the corresponding position on the bucket lid 34, the triangular rib 35 is fitted into the concave fitting groove 36 to achieve a temporary seal, multiple engagement grooves 38 are made on the outer wall of the bucket body that is in close contact with the bucket lid 34, a convex block 37 is machined on the side of the bucket lid 34, the convex block 37 is inserted into the engagement groove 38 to strengthen the fixation, a seal washer 18 is attached to the inner wall of the mounting groove 11, and after the material bucket 3 is pressed in, the bucket lid 34 is in close contact with the seal washer 18, completing the sealing of the material bucket 3 and the mounting groove 11. A first shaft block 15 and a second shaft block 16 (the second shaft block 16 is located behind the first shaft block 15) are symmetrically provided on the outer walls of both sides of the mounting case 1, a limit rod 110 is provided above the second shaft block 16, a rotating disc 41 is connected to the bottom of both sides of the inverted U-shaped handle 40 of the lock assembly 4 via a shaft, the rotating disc 41 is movably fitted onto the second shaft block 16, an arc groove 42 is made in the rotating disc 41, and the limit rod 110 is fitted into the arc groove 42 to limit the rotation angle. A first transmission plate 43 is welded to the front end of the turntable 41, a pin rod 44 is drilled between the two first transmission plates 43, the first shaft block 15 is movably connected to the lock hook 45 via a shaft, a second transmission plate 46 is welded to the rear end of the lock hook 45, a movable groove 47 is made in the second transmission plate 46, the pin rod 44 is inserted into the movable groove 47, a protruding base 33 is welded to both sides of the material bucket 3, and the material bucket 3 is locked by the hook opening of the lock hook 45 engaging with the protruding base 33. A discharge port 31 is provided on one side of the material bucket 3, mounting plates 30 are provided symmetrically on both sides of the discharge port 31, an inverted L-shaped pressing plate 51 is provided at the bottom of the operating handle 50 of the discharge assembly 5, two fixing plates 54 are provided at the bottom of the contact plate, a second shaft rod 55 is drilled between the two fixing plates 54, a fixing cylinder 52 is provided at the top of both, a first shaft rod 53 is provided on both sides of the fixing cylinder 52, both ends of the first shaft rod 53 are movably connected between the two mounting plates 30, a discharge port pressing plate 56 is provided below the fixing plate 54, a sealing plug 57 (which can close the discharge port 31) is fixed to the front of the pressing plate, and a third shaft rod 58 is provided at the top A third shaft rod 58 is provided, with both ends movably connected between two mounting plates 30, a transmission member 59 is welded to the back of the third shaft rod 58, an elliptical groove 510 is made in the transmission member 59, the second shaft rod 55 is movably fitted into the elliptical groove 510, a torsion spring 511 is fitted to the outside of the fixed cylinder 52, one side of the torsion spring 511 abuts against the bottom of the inverted L-shaped pressing plate 51, and the other side abuts against the outer wall of the material bucket 3 (located above the discharge port 31), enabling the reset of the discharge assembly 5, a dust cover 39 is welded to the outside of the mounting plate 30 of the material bucket 3, and is placed over the mounting plate 30 and the outside of the discharge assembly 5. A fixed disc 71 is provided on the back of the mounting groove 11, a cooling cylinder 72 (located inside the mounting groove 11) is fixed to the front of the fixed disc 71 with screws, a seal bearing 73 is built into the side wall of the cooling cylinder 72 that is farther from the fixed disc 71, a drive reducer 70 is fixed to the back of the fixed disc 71 via bolts, a transmission shaft 74 is welded to the transmission end of the reducer, the transmission shaft 74 is inserted into the cooling cylinder 72 and one end is fitted into the seal bearing 73, a base 75 is fitted to the outside of the cooling cylinder 72 and a plurality of support rods 76 are welded to the base 75 A pair of spiral blades 77 are attached to the outside of the support rod 76, discharge plates 78 are welded to the top ends of the two spiral blades 77, and a connecting sleeve 79 is welded to the top ends of the two discharge plates 78. The connecting sleeve 79 is fixed to the top end of the transmission shaft 74, enabling the rotation of the spiral blades 77 to be driven by a reduction gear. A pair of protrusions 710 are provided on the top end of the connecting sleeve 79, and by bringing the two protrusions 710 into contact with the inner wall of the material bucket 3, the stirring blades are prevented from directly contacting the inner wall on one side of the material bucket 3. Multiple limit rings 26 are provided on the top of the machine base 2, mounting columns 20 are provided inside the limit rings 26, connecting plates 25 are provided on both sides of the bottom of the compressor 60, fitting leg covers 27 are welded to the positions of the connecting plates 25 corresponding to the mounting columns 20, the fitting leg covers 27 are fitted onto the mounting columns 20 and fixed with screws, a pair of square grooves 22 are opened on one side of the machine base 2, a fan bracket 61 is provided on one side of the compressor 60, two mounting legs 67 are provided on the bottom of the bracket, the mounting legs 67 are fitted into the square grooves 22 and fixed with screws, an air passage 63 is provided inside the fan bracket 61, a mounting frame 64 is welded to the front of the air passage 63, and multiple semicircular ribs 66 are welded to the back of the mounting frame 64, Multiple screw columns 610 are provided on the outer wall of the motor 69, the screw columns 610 are fitted into semicircular ribs 66 and fixed to the mounting frame 64 with screws, the fan body 68 is attached to the transmission end of the motor, windbreak plates 614 are provided on both sides of the back of the fan bracket 61, a condenser 611 is placed between the two windbreak plates 614, fasteners 62 are machined at the four corners of the back of the bracket, the condenser 611 is secured by engaging with the fasteners 62, a drying filter 612 is fixed to two U-shaped ribs 21 at the top of the machine base 2, an evaporator 613 is installed inside the cooling cylinder 72, the evaporator 613, compressor 60, condenser 611 and drying filter 612 are sequentially connected via copper pipes to form a refrigeration cycle loop.

[0020] When it is necessary to attach the material bucket 3 to the shake machine, first, align the guide blocks 32 on both sides of the material bucket 3 with the guide grooves 12 on both sides of the mounting groove 11, and at the same time, align the cooling cylinder 72 with the circular groove on the bucket lid 34, then firmly push the material bucket 3 along the guide grooves 12, during which the guide blocks 32 slide along the guide grooves 12, and the bucket lid 34 of the material bucket 3 comes into full contact with the sealing washer 18, completing the preliminary positioning. At this time, the inverted U-shaped handle 40 at the rear end of the mounting case 1 is manually rotated upward, gradually rotating from the initial inclined state (shown in Figure 16) to a vertical state (shown in Figure 15) that is in close contact with the back of the mounting case 1. During the rotation process, the operating handle 50 causes the rotating discs 41 on both sides to rotate synchronously around the second shaft block 16, and the first transmission plate 43 at the front end of the rotating disc 41 rotates in accordance with the rotating disc 41, and the second transmission is transmitted by the pin rod 44. A downward thrust is applied to plate 46, and the pin rod 44 is drilled into the movable groove 47 of the second transmission plate 46, thereby transmitting the thrust to the second transmission plate 46 and engaging the lock hook 45 to rotate downward around the first shaft block 15 as its center. Finally, the hook opening of the lock hook 45 is tightly engaged with the protrusions 33 on both sides of the material bucket 3, completing the mechanical locking of the material bucket 3 and ensuring that the material bucket 3 does not move stably during operation. When the shake machine is started, the drive reducer 70 is energized and operates, coordinating the rotation of the transmission shaft 74. The transmission shaft 74, via the connecting sleeve 79 at its top, coordinates the synchronous rotation of the helical blade 77 and the discharge plate 78. During the rotation of the helical blade 77, the raw materials (e.g., ice blocks, fruit blocks, etc.) in the material bucket 3 are crushed, stirred, and uniformly dispersed. Simultaneously, the cooling assembly 6 is activated, the compressor 60 compresses the refrigerant into a high-temperature, high-pressure gas, which is sent to the condenser 611. After heat dissipation, it is converted back into a high-pressure liquid. After the drying filter 612 filters out impurities, the refrigerant enters the evaporator 613. In the evaporator 613, it evaporates and absorbs heat, rapidly lowering the temperature of the cooling cylinder 72. The cooling cylinder 72 transmits the low temperature to the raw materials in the material bucket 3, and through continuous stirring and low-temperature action, the raw materials gradually become a uniform shaved ice. The discharge plate 78 rotates synchronously with the spiral blade 77, and the structure of the discharge plate 78, which is narrow at the front and wide at the back, conforms to the flow discipline of the raw material. The shaved ice moves along the surface of the discharge plate 78 to the discharge port 31 of the material bucket 3 by centrifugal force and the feeding action of the spiral blade 77, preparing for subsequent discharge. To perform discharge, the user grips the operating handle 50 of the discharge assembly 5 and applies downward force. The operating handle 50 is linked to rotate the inverted L-shaped pressing plate 51 around the first shaft rod 53, causing the two fixing plates 54 at the bottom of the contact plate to swing backward accordingly. The second shaft rod 55 between the fixing plates 54 moves backward synchronously, sliding within the elliptical groove 510 of the transmission member 59 and pressing against the rear side wall of the elliptical groove 510, thereby linking the transmission member 59 to rotate backward around the third shaft rod 58. As the transmission member 59 rotates, the discharge port pressing plate 56 connected to it swings forward, the sealing plug 57 detaches from the discharge port 31, the discharge port 31 is opened, and the shaved ice in the material bucket 3 flows out of the discharge port 31 due to gravity, completing the discharge. When the user releases their grip, the biasing force on the operating handle 50 is released, and at this time, the torsion spring 511, which is under compressive force, releases its elastic energy, and one side of the torsion spring 511 comes into contact with the outer wall of the material bucket 3, generating a forward thrust. This thrust acts on the transmission member 59, causing the third shaft rod 58 to rotate forward around its axis. The front wall of the elliptical groove 510 in the transmission member 59 pushes the second shaft rod 55 to move forward, and the fixing plate 54 and the inverted L-shaped pressing plate 51 move in conjunction to rotate in opposite directions around the first shaft rod 53, resetting the operating handle 50. Simultaneously, the discharge port pressing plate 56 swings backward with the transmission member 59, the sealing plug 57 is fitted back into the discharge port 31, sealing the discharge port 31, and the entire device returns to its initial state, waiting for the next discharge. During operation of the equipment, the low temperature generated by the evaporator 613 is transmitted to the material bucket 3 and the mounting case 1. As the surface temperature of both falls below the ambient temperature, water vapor in the air is cooled and turns into water droplets (condensation). The condensed water flows along the surface of the material bucket 3 and the mounting groove 11, is guided by the inclination angle of the bottom surface within the mounting groove 11, and gradually collects in the lower drainage groove 13. It flows into the drain pipe 14 through the drain hole 19, and finally enters the conduit 24 of the machine base 2 along the drain pipe 14. From the end of the conduit 24, it is discharged into the water receiving tray 8 in the insertion groove 23, thereby preventing environmental pollution caused by the irregular dripping of condensed water.

[0021] The specific embodiments of the invention described above are for illustrative purposes only or to explain the principles of the invention, and do not limit the invention. Therefore, any modifications, equivalent substitutions, improvements, etc., made without departing from the spirit and scope of the invention are all included within the scope of protection of the invention. The claims attached to the invention are intended to encompass all changes and modifications included within the scope and boundaries of those claims, or in forms equivalent to those scope and boundaries. [Explanation of symbols]

[0022] Mounting case 1, front panel 10, mounting groove 11, guide groove 12, drainage groove 13, drain pipe 14, first shaft block 15, second shaft block 16, control panel 17, seal washer 18, drain hole 19, limit rod 110, machine base 2, mounting column 20, U-shaped rib 21, square groove 22, insertion groove 23, conduit 24, connecting plate 25, limit ring 26, fitting leg cover 27, material bucket 3 Mounting plate 30, discharge port 31, guide block 32, convex base 33, bucket lid 34, triangular rib 35, concave fitting groove 36, convex block 37, engaging groove 38, dust cover 39, input lid 310, lock assembly 4, inverted U-shaped handle 40, rotating disc 41, arc groove 42, first transmission plate 43, pin rod 44, lock hook 45, second transmission plate 46, movable groove 47, discharge assembly 5, operating handle Handle 50, inverted L-shaped pressing plate 51, fixing cylinder 52, first shaft rod 53, fixing plate 54, second shaft rod 55, discharge port pressing plate 56, sealing plug 57, third shaft rod 58, transmission member 59, elliptical groove 510, torsion spring 511, cooling assembly 6, compressor 60, fan bracket 61, fastener 62, air passage 63, mounting frame 64, screw hole 65, semicircular rib 66, mounting leg 67, fan body Body 68, fan motor 69, screw column 610, condenser 611, drying filter 612, evaporator 613, windbreak plate 614, stirring assembly 7, drive reducer 70, fixed disc 71, cooling cylinder 72, seal bearing 73, transmission shaft 74, base 75, support rod 76, spiral blade 77, discharge plate 78, connecting sleeve 79, protrusion 710, water tray 8, side heat sink 9, rear heat sink 90.

Claims

1. A new type of shake machine comprising a mounting case (1), wherein a lock assembly (4) is provided at the rear end of the mounting case (1), a mounting groove (11) is provided in the mounting case (1), a removable material bucket (3) is provided in the mounting groove (11), the material bucket (3) is connected to the lock assembly (4), a discharge assembly (5) is provided in front of the material bucket (3), a stirring assembly (7) is provided inside the mounting case (1), and the stirring assembly (7) is connected to the material bucket A new type of shake machine characterized by being located inside (3), having a front panel (10) provided on the front bottom of the mounting case (1), a control panel (17) provided on the front panel (10), a machine base (2) provided on the bottom of the front panel (10), a cooling assembly (6) provided on the machine base (2), side heat dissipation plates (9) provided on both sides of the mounting case (1) and the machine base (2), and rear heat dissipation plates (90) provided on the backs of both the mounting case (1) and the machine base (2).

2. The new shake machine according to claim 1, characterized in that the inner bottom surface of the mounting groove (11) is provided at an angle, a drainage groove (13) is provided on the side of the lower inner bottom surface of the mounting groove (11), a drain hole (19) is provided in the middle of the drainage groove (13), a drain pipe (14) is provided at the bottom of the drain hole (19), a conduit (24) is provided at the top of the machine base (2) at a position corresponding to the drain pipe (14), an insertion groove (23) is provided at the front end of the machine base (2), the conduit (24) is in communication with the insertion groove (23), a water tray (8) is provided in front of the front plate (10), and one side of the water tray (8) is inserted into the insertion groove (23).

3. Guide grooves (12) are symmetrically opened on the inner walls of both sides of the mounting groove (11), a pair of guide blocks (32) are provided horizontally on both sides of the material bucket (3) at positions corresponding to the guide grooves (12), a discharge port (31) is opened on one side of the material bucket (3), mounting plates (30) are provided symmetrically on both sides of the discharge port (31), the discharge assembly (5) is provided between the two mounting plates (30), a dust cover (39) is provided on the same side of the material bucket (3), the dust cover (39) is placed over the outside of the two mounting plates (30), a bucket lid (34) is welded to the side of the material bucket (3) furthest from the discharge assembly (5), and the material bucket The novel shake machine according to claim 1, characterized in that a triangular rib (35) is provided around the edge of one side of the material bucket (3) that is in close contact with the bucket lid (34), a concave fitting groove (36) is made in the bucket lid (34) at a position corresponding to the triangular rib (35), the triangular rib (35) is provided in the concave fitting groove (36), a plurality of engagement grooves (38) are made in the outer wall of one side of the material bucket (3) that is in close contact with the bucket lid (34), a convex block (37) is provided on the side of the bucket lid (34) at a position corresponding to the engagement grooves (38), the convex block (37) is inserted into the engagement grooves (38), and an input lid (310) is provided on one side of the top of the material bucket (3).

4. The novel shake machine according to claim 3, characterized in that a pair of first shaft blocks (15) are provided symmetrically on the outer walls on both sides of the mounting case (1), the two first shaft blocks (15) are each located behind the rear ends of two guide grooves (12), a pair of second shaft blocks (16) are further provided symmetrically on the outer walls on both sides of the mounting case (1), the two second shaft blocks (16) are each located behind the two first shaft blocks (15), and a limit rod (110) is provided above each of the second shaft blocks (16).

5. The lock assembly (4) comprises an inverted U-shaped handle (40), with rotating discs (41) symmetrically provided on both bottom sides of the inverted U-shaped handle (40), the rotating discs (41) movably mounted on the second shaft block (16), an arc groove (42) cut into the rotating disc (41), the limit rod (110) provided in the arc groove (42), a pair of first transmission plates (43) symmetrically provided at the front end of the rotating disc (41), and a pin rod (44) between the two first transmission plates (43). The novel shake machine according to claim 4, characterized in that a lock hook (45) is provided on each of the two first shaft blocks (15), a second transmission plate (46) is provided at the rear end of the lock hook (45), a movable groove (47) is made in the second transmission plate (46), the pin rod (44) is provided in the movable groove (47), and a pair of convex bases (33) are provided symmetrically on both sides of the material bucket (3) at positions corresponding to the lock hook (45).

6. The discharge assembly (5) is equipped with an operating handle (50), an inverted L-shaped pressing plate (51) is provided at the bottom of the operating handle (50), a pair of fixing plates (54) are provided at the bottom of the inverted L-shaped pressing plate (51), a second shaft rod (55) is provided between the two fixing plates (54), fixing cylinders (52) are simultaneously provided at the tops of the two fixing plates (54), first shaft rods (53) are provided symmetrically on both sides of the fixing cylinders (52), a discharge port pressing plate (56) is provided below the two fixing plates (54), a sealing plug (57) is provided on the front of the discharge port pressing plate (56), a third shaft rod (58) is provided at the top of the discharge port pressing plate (56), and the back of the third shaft rod (58) The novel shake machine according to claim 5, characterized in that a transmission member (59) is provided on the surface, an elliptical groove (510) is made in the transmission member (59), the transmission member (59) is located between two fixed plates (54), and a second shaft rod (55) is movably provided in the elliptical groove (510), the first shaft rod (53) and the third shaft rod (58) are both movably provided between two mounting plates (30), torsion springs (511) are fitted simultaneously on both sides of the fixed cylinder (52), one side of the torsion spring (511) is in contact with the bottom of the inverted L-shaped pressing plate (51), and the other side of the torsion spring (511) is in contact with the outer wall of the material bucket (3) and is located above the discharge port (31).

7. The stirring assembly 7 includes a fixed disc (71) provided on the back of the mounting groove (11), a cooling cylinder (72) fixed to the front of the fixed disc (71) by a plurality of screws, the cooling cylinder (72) located within the mounting groove (11), a seal bearing (73) provided in the wall of the cooling cylinder (72) on one side farther from the fixed disc (71), a drive reducer (70) provided on the back of the fixed disc (71), a transmission shaft (74) provided at the transmission end of the drive reducer (70), the transmission shaft (74) provided inside the cooling cylinder (72), and one end of the transmission shaft (74) provided inside the seal bearing (73), a base (75) fitted on the outside of the cooling cylinder (72), and a plurality of support rods (76) provided on the base (75). The new shake machine according to claim 6, characterized in that a pair of spiral blades (77) are simultaneously provided around the outside of a plurality of support rods (76), a discharge plate (78) is provided at the top end of each spiral blade (77), a connecting sleeve (79) is provided between the top ends of the two discharge plates (78), the connecting sleeve (79) is provided at the top end of the transmission shaft (74), a seal washer (18) is provided on the inner wall of the mounting groove (11), the seal washer (18) is fitted on the outside of the cooling cylinder (72), and the bucket lid (34) is in contact with the seal washer (18), the discharge plate (78) has a structure that is narrow at the front and wide at the back, and a pair of protrusions (710) are provided at the top end of the connecting sleeve (79).

8. The novel shake machine according to claim 7, characterized in that a plurality of limit rings (26) are provided on the top of the machine base 2, a mounting column (20) is provided inside each of the limit rings (26), a pair of rectangular grooves (22) are provided on one side of the machine base (2), and a pair of U-shaped ribs (21) are further provided on one side of the top of the machine base (2).

9. The cooling assembly (6) includes a compressor (60) mounted on the machine base (2), connecting plates (25) are provided symmetrically on both sides of the bottom of the compressor (60), and fitting leg covers (27) are provided on the connecting plates (25) at positions corresponding to a plurality of mounting columns (20), the fitting leg covers (27) are inserted into limit rings (26) and fitted to the outside of the mounting columns (20), and the mounting columns (20) and fitting leg covers (27) are fixed together by screws, a fan bracket (61) is provided on one side of the compressor (60), a pair of mounting legs (67) are provided on the bottom of the fan bracket (61), the two mounting legs (67) are each provided in two rectangular grooves (22), and the rectangular grooves (22) and mounting legs (67) are fixed together by screws The fan bracket (61) is fixed in place, an air passage (63) is provided within it, a mounting frame (64) is provided in front of the air passage (63), a plurality of screw holes (65) are drilled in the mounting frame (64), a plurality of semicircular ribs (66) are provided on the back of the mounting frame (64), each of the plurality of semicircular ribs (66) is provided on one side of the plurality of screw holes (65), a fan motor (69) is provided on the back of the mounting frame (64), a fan body (68) is provided at the transmission end of the fan motor (69), screw posts (610) are provided on the fan motor (69) at positions corresponding to the plurality of semicircular ribs (66), each of the plurality of screw posts (610) is provided within the plurality of semicircular ribs (66), and the fan is fixed using screws. The novel shake machine according to claim 8, characterized in that wind deflectors (614) are provided symmetrically on both sides of the back of the fan bracket (61), a condenser (611) is provided between the two wind deflectors (614), fasteners (62) are provided at all four corners of the back of the fan bracket (61), the condenser (611) is secured to a plurality of fasteners (62), a drying filter (612) is provided on the two U-shaped ribs (21), an evaporator (613) is provided inside the cooling cylinder (72), and the evaporator (613), compressor (60), condenser (611) and drying filter (612) are sequentially connected via copper pipes.

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