Single power source pounding and cutting rice cake integrated machine

Abstract

The application discloses a single-power-source pounding and cutting sticky rice cake integrated machine, which is characterized in that: the first and second pounders are used to drive the pounding disc to rotate towards the second direction twice, and the angle of rotation of the pounding disc in each cycle is equal to the angle of division of the first limiting structure, namely, the first pounder can pound the cooked waxy rice in the pounding groove in turn, so that all the cooked waxy rice in the annular groove can be pounded; the pounded waxy rice enters the central channel through the extrusion hole, and then is pounded by the second pounder, so that the waxy rice can be continuously fed in the conveying channel, and finally is cut into blocks by the cutter driven by the second runner; namely, the single-power-source pounding and cutting sticky rice cake integrated machine can solve the problem that the existing sticky rice cake machine can only pound cooked waxy rice but cannot automatically realize continuous feeding of the pounded waxy rice, can not only pound the waxy rice into mud, but also can process the waxy rice into blocky sticky rice cakes, only one power source is adopted, and the machine has the advantages of compact structure and suitability for household use.

Description

Technical Field

[0001] This invention belongs to the field of household appliance technology, specifically a single-power-source pounding and cutting glutinous rice cake integrated machine. Background Technology

[0002] Ciba, or glutinous rice cake, is a traditional Chinese delicacy with a history spanning thousands of years. Pounding ciba is a traditional Chinese craft, resulting in a soft, chewy, and uniquely flavorful cake. Traditionally, ciba is made by pounding cooked glutinous rice in a stone trough with a stone hammer until it becomes a paste. However, with technological advancements, industrialized production equipment for ciba has gradually become available. Examples include a hammer-type ciba machine disclosed in Chinese patent application CN112914021A and a ciba pounding machine disclosed in Chinese patent application CN111838528A. While these machines can pound cooked glutinous rice into a paste, they suffer from a limitation: they can only pound the rice and cannot further process the paste into the desired shape for ciba. Other glutinous rice cake makers, while having more comprehensive functions, suffer from complex structures that make them unsuitable for home use. For example, Chinese Patent No. CN210143760U discloses a high-efficiency glutinous rice cake maker, which has a complex structure and large size, making it unsuitable for home use. Summary of the Invention

[0003] In view of this, the purpose of the present invention is to provide a single-power-source pounding and cutting glutinous rice cake machine that can not only pound glutinous rice into a paste, but also process the pounded glutinous rice dough into block-shaped glutinous rice cakes. It uses only one power source and has the advantages of compact structure and suitability for home use.

[0004] To achieve the above objectives, the present invention provides the following technical solution: A single-power-source pounding and cutting glutinous rice cake integrated machine includes a support frame, on which a mounting plate is provided; The mounting plate is equipped with a conveying assembly, a power assembly, a hammering assembly, and a cutting assembly; The conveying assembly includes a hammering disc and a conveying channel; a connecting channel is provided between the hammering disc and the conveying channel, the connecting channel is fixedly mounted on the mounting plate, the hammering disc is mounted above the connecting channel and can rotate relative to the connecting channel, and the conveying channel is connected to the lower end of the connecting channel; the hammering disc includes a coaxial central channel and an annular groove, and a first limiting structure is evenly distributed in a ring between the inner and outer walls of the annular groove. The top surface of the first limiting structure is a first inclined surface oriented towards a first direction, and the upper and lower ends of the first inclined surface are respectively provided with a first vertical surface and a second vertical surface extending downward to the bottom of the annular groove. In two adjacent first limiting structures, a hammering groove is formed between the first vertical surface of one first limiting structure and the second vertical surface of the other first limiting structure; the inner wall of the annular groove is provided with an extrusion hole for connecting the hammering groove and the central channel; the inner wall of the central channel is evenly distributed in a ring with second inclined surfaces oriented towards a first direction, the number of first inclined surfaces and second inclined surfaces are equal, and the first inclined surfaces and second inclined surfaces are staggered; the central channel is connected to the connecting channel; The power assembly includes a motor mounted on the mounting plate and a transmission box connected to the motor. The output shaft of the transmission box is equipped with a first wheel and a second wheel that rotate synchronously with it. The hammering assembly includes a first upright plate and a second upright plate located on both sides of the first rotating wheel, and both the first upright plate and the second upright plate are fixedly connected to the mounting plate; the first upright plate is provided with a first hammering assembly corresponding to the annular groove, and the second upright plate is provided with a second hammering assembly corresponding to the central channel. The first hammering assembly includes a first vertical slide rail disposed on the first upright plate and a first slider that slides in cooperation with the first vertical slide rail. A first double-hinged connecting rod is provided between the first slider and the first side wall of the first rotating wheel. The hinge point between the first double-hinged connecting rod and the first rotating wheel has a first eccentricity relative to the axis of rotation of the first rotating wheel. A first hammering bracket is mounted on the first slider, and a first hammering device that cooperates with the hammering groove is mounted on the first hammering bracket. When the first hammering device hammers downward and contacts and cooperates with the first inclined surface, it drives the hammering disc to rotate in the second direction. The second hammering assembly includes a second vertical slide rail disposed on the second upright plate and a second slider that slides in cooperation with the second vertical slide rail. A second double-hinged connecting rod is provided between the second slider and the second side wall of the first rotating wheel. The hinge point between the second double-hinged connecting rod and the first rotating wheel has a second eccentricity relative to the axis of rotation of the first rotating wheel. A second hammering bracket is mounted on the second slider, and a second hammering device that cooperates with the central channel is mounted on the second hammering bracket. When the second hammering device hammers downward and contacts and cooperates with the second inclined surface, it drives the hammering disc to rotate in the second direction. The cutting assembly includes a cutter handle located in the vertical direction and a moving limiter for limiting the movement of the cutter handle in the vertical direction. A cutting linkage mechanism for driving the cutter handle to reciprocate in the vertical direction is provided between the cutter handle and the second rotary wheel. A cutter is installed at the lower end of the cutter handle, and the cutter is aligned with the outlet of the conveying channel.

[0005] Furthermore, the lower part of the radially inward inner side of the first hammer is provided with a pressing slope, which causes the thickness of the first hammer to gradually decrease along the vertically downward direction.

[0006] Furthermore, the outer diameter of the second hammer is equal to twice the distance between the inner end of the second inclined surface and the axis of the central channel, and the outer peripheral wall of the second hammer is provided with a protrusion for contacting and engaging with the second inclined surface.

[0007] Furthermore, the angle between the line connecting the first double-hinged link to the center of the first rotating wheel and the line connecting the second double-hinged link to the center of the first rotating wheel is 180°.

[0008] Furthermore, in the vertically downward view direction, the sum of the angle occupied by the first inclined plane relative to the center of the hammering disc and the angle occupied by the second inclined plane relative to the center of the hammering disc satisfies:

[0009] in, This indicates the angle of the first inclined plane relative to the center of the hammering disc; This indicates the angle of the second inclined plane relative to the center of the hammering disc; This indicates the number of rings evenly distributed on the first or second inclined plane.

[0010] Furthermore, the diameter of the extrusion hole is smaller than the particle size of the cooked glutinous rice.

[0011] Furthermore, the conveying channel includes a vertical section, an inclined section, and a horizontal section, with the inclined section located between the vertical section and the horizontal section; the vertical section is fixedly connected to the lower end of the connecting channel, the diameter of the inclined section gradually decreases along the direction from the vertical section to the horizontal section, and the upper and lower ends of the inclined section are respectively connected to the vertical section and the horizontal section.

[0012] Furthermore, the lower ends of the horizontal segment and the inclined segment are detachably connected.

[0013] Furthermore, a scraper that cooperates with the cutter is mounted on the bracket.

[0014] Furthermore, the cutting linkage mechanism includes a first link hinged to the second rotating wheel, a connecting block between the first link and the cutter handle, the first link and the cutter handle being hinged to the connecting block respectively, and the connecting block being hinged to the bracket.

[0015] The beneficial effects of this invention are as follows: The single-power-source pounding and cutting glutinous rice cake integrated machine of the present invention only requires one motor to drive the pounding component to perform pounding operations and drive the cutting component to perform cutting operations. At the same time, the conveying component can be used to transport the pounded and mashed glutinous rice dough from the pounding plate to the cutting component. Specifically, an annular groove and a central channel are set inside the pounding disc, with a first limiting structure within the annular groove and a second inclined surface on the inner wall of the central channel. A motor and transmission box drive the first rotating wheel to rotate, which in turn activates the first and second pounding components. During the downward pounding process, the first pounder first contacts and engages with the first inclined surface, applying a tangential force in the second direction to the pounding disc, causing it to rotate at a set angle in the second direction. Then, the first pounder continues downward into the pounding groove to pound the cooked glutinous rice into a paste. The rice enters the central channel through the extrusion hole; the first rotating wheel continues to rotate, and while the first pounder lifts upward, the second pounder moves downward. When the second pounder contacts and engages with the second inclined plane, it applies a tangential force in the second direction to the pounding disc, causing the pounding disc to rotate at a set angle in the second direction. The second pounder continues to pound the glutinous rice in the central channel downward, making the glutinous rice more compact and driving it forward in the conveying channel so that it is exposed at the outlet of the conveying channel. Then, the cutter cuts the exposed glutinous rice downward under the action of the second rotating wheel, thus obtaining the glutinous rice cake. Thus, in this invention, the first and second pounders drive the pounding disc to rotate in the second direction in two separate cycles. The rotation angle of the pounding disc in each cycle is equal to the equal division angle of the first limiting structure. That is, the first pounder can pound the cooked glutinous rice in the pounding groove in sequence, ensuring that all the cooked glutinous rice in the annular groove can be pounded. At the same time, the pounded glutinous rice enters the central channel through the extrusion hole, and is then pounded by the second pounder, which drives the glutinous rice to be continuously fed in the conveying channel. Finally, it is cut into pieces by the cutter driven by the second rotating wheel. That is, the single-power source pounding and cutting glutinous rice integrated machine of this invention solves the problem that the existing glutinous rice machine can only pound cooked glutinous rice but cannot automatically feed the pounded glutinous rice continuously.

[0016] In summary, the single-power-source pounding and cutting glutinous rice cake machine of the present invention can not only pound glutinous rice into a paste, but also drive the pounded paste glutinous rice to be continuously fed, so as to further process the pounded glutinous rice dough into block glutinous rice cakes. It only uses one power source, and compared with the existing multi-power-source glutinous rice cake machine, the structure is more compact and the size can be made smaller to suit home use. Attached Figure Description

[0017] To make the objectives, technical solutions, and beneficial effects of this invention clearer, the following figures are provided for illustration: Figure 1 This is a structural schematic diagram of an embodiment of the single-power-source pounding and cutting glutinous rice cake integrated machine of the present invention, specifically a state diagram of the first pounder pounding downwards; Figure 2 for Figure 1 Enlarged view of region A; Figure 3 This is a diagram showing the state of the single-power-source pounding and cutting glutinous rice cake machine in this embodiment when the second pounder is pounding downwards; Figure 4 for Figure 1 Top view; Figure 5 for Figure 4 The BB cross-sectional view is specifically a structural diagram showing the structure after the second hammer is hidden. Figure 6 for Figure 5 Enlarged view of region D; Figure 7 for Figure 4 The CC cross-sectional view is specifically a structural schematic diagram with the first hammer hidden. Figure 8 This is a top view of the hammering groove; Figure 9 for Figure 8 The unfolded view of the EE sectional view; Figure 10 for Figure 8The unfolded view of the FF sectional view.

[0018] Explanation of reference numerals in the attached figures: 10-Bracket; 11-Mounting plate; 21-Hammering disc; 22-Conveying channel; 221-Vertical section; 222-Inclined section; 223-Horizontal section; 23-Connecting channel; 24-Central channel; 241-Second inclined surface; 25-Annular groove; 26-First limiting structure; 261-First inclined surface; 262-First vertical surface; 263-Second vertical surface; 27-Hammering groove; 28-Extrusion hole; 31-Motor; 32-Transmission box; 33-First rotor; 34-Second rotor; 41-First vertical plate; 42-First vertical slide rail; 43-First slider; 44-First double-hinged connecting rod; 45-First hammering bracket; 46-First hammer; 461-Extrusion slope; 51-Second vertical plate; 52-Second vertical slide rail; 53-Second slider; 54-Second double-hinged connecting rod; 55-Second hammering bracket; 56-Second hammer; 561-Protrusion; 61-Cutter handle; 62-Movement limiter; 63-Cutter; 64-Scraper; 65-First connecting rod; 66-Connecting block. Detailed Implementation

[0019] The present invention will be further described below with reference to the accompanying drawings and specific embodiments, so that those skilled in the art can better understand and implement the present invention. However, the embodiments described are not intended to limit the present invention.

[0020] The single-power-source pounding and cutting glutinous rice cake integrated machine of this embodiment includes a support 10, on which a mounting plate 11 is provided. The mounting plate 11 of this embodiment is equipped with a conveying component, a power component, a pounding component, and a cutting component.

[0021] (1) Conveying components Specifically, the conveying assembly in this embodiment includes a hammering disc 21 and a conveying channel 22. A connecting channel 23 is provided between the hammering disc 21 and the conveying channel 22. The connecting channel 23 is fixedly mounted on the mounting plate 11. The hammering disc 21 is mounted above the connecting channel 23 and can rotate relative to the connecting channel 23. The conveying channel 22 is connected to the lower end of the connecting channel 23. The hammering disc 21 in this embodiment includes a coaxial central channel 24 and an annular groove 25. A first limiting structure 26 is evenly distributed in a ring between the inner and outer walls of the annular groove 25. Specifically, the top surface of the first limiting structure 26 is a first inclined surface 261 that is inclined in a first direction. The upper and lower ends of the first inclined surface 261 are respectively provided with a first vertical surface 262 and a second vertical surface 263 extending downward to the bottom of the annular groove 25. In two adjacent first limiting structures 26, a hammering groove 27 is formed between the first vertical surface 262 of one first limiting structure 26 and the second vertical surface 263 of the other first limiting structure 26. Meanwhile, in this embodiment, the inner wall of the central channel 24 is provided with a ring of evenly distributed second inclined surfaces 241 that slope towards the first direction. The number of first inclined surfaces 261 and second inclined surfaces 241 are equal, and the first inclined surfaces 261 and second inclined surfaces 241 are staggered. In a preferred embodiment of this embodiment, in the vertically downward view direction, the sum of the angle occupied by the first inclined surface 261 relative to the center of the hammering disc 21 and the angle occupied by the second inclined surface 241 relative to the center of the hammering disc 21 satisfies:

[0022] in, This indicates the angle of the first inclined plane relative to the center of the hammering disc; This indicates the angle of the second inclined plane relative to the center of the hammering disc; This indicates the number of annularly distributed first or second inclined planes. In this embodiment, , and They are equal and both equal to 30°.

[0023] Thus, the first hammer 46 contacts and engages with the first inclined surface 261, driving the hammering disc 21 to rotate in the second direction by an angle. The second hammer contacts and engages with the second inclined plane 241, driving the hammering disc 21 to rotate in the second direction by an angle. One hammering cycle consists of the first hammer 46 and the second hammer 56 striking downwards once. After each hammering cycle, the angle at which the hammering disc 21 rotates toward the second direction is the equal division angle between the two adjacent first limiting structures 26. In the next hammering cycle, the first hammer 46 strikes the adjacent hammering groove 27. In this way, it can be ensured that each hammering groove 27 can be hammered by the first hammer 46, that is, it can be ensured that all the glutinous rice in the annular groove 25 can be hammered.

[0024] In this embodiment, the inner wall of the annular groove 25 is provided with an extrusion hole 28 for connecting the pounding groove 27 and the central channel 24. The central channel 24 is connected to the connecting channel 23. In this embodiment, the extrusion hole 28 is correspondingly arranged with the pounding groove 27, that is, the extrusion hole 28 is located below the first inclined surface 261. Thus, when the first pounder 46 pounds the glutinous rice in the pounding groove 27, the pounded glutinous rice enters the central channel 24 through the extrusion hole 28. The glutinous rice in the central channel 24 is further pounded and compacted by the second pounder 56, which drives the glutinous rice to continuously move forward. In a preferred embodiment, the diameter of the extrusion hole 28 is smaller than the particle size of the cooked glutinous rice. Thus, the extrusion hole 28 can also be used to apply extrusion pressure to the cooked glutinous rice that has not been pounded into a paste, so that the cooked glutinous rice is squeezed into a paste.

[0025] The conveying channel 22 in this embodiment includes a vertical section 221, an inclined section 222, and a horizontal section 223. The inclined section 222 is located between the vertical section 221 and the horizontal section 223. The vertical section 221 is fixedly connected to the lower end of the connecting channel 23. The diameter of the inclined section 222 gradually decreases along the direction from the vertical section 221 to the horizontal section 223, and the upper and lower ends of the inclined section 222 are connected to the vertical section 221 and the horizontal section 223, respectively. By setting the diameter of the inclined section 222 to gradually decrease, on the one hand, the inclined section 222 can apply pressure to the glutinous rice, making the glutinous rice more compact; on the other hand, it ensures that after each pounding by the second pounder 56, the glutinous rice exposed from the horizontal section 223 has sufficient length to facilitate cutting into pieces. In a preferred embodiment, the horizontal section 223 is detachably connected to the lower end of the inclined section 222, so that the horizontal section 223 with different inner hole shapes can be replaced as needed to obtain glutinous rice cakes with different shapes.

[0026] (2) Power components The power assembly in this embodiment includes a motor 31 mounted on a mounting plate 11 and a transmission box 32 that is driveably connected to the motor 31. A first rotating wheel 33 and a second rotating wheel 34, which rotate synchronously with the output shaft of the transmission box 32, are respectively mounted at both ends of the output shaft. Specifically, in this embodiment, the input shaft and output shaft of the transmission box 32 are perpendicular to each other to facilitate the mounting arrangement of the motor 31 and the transmission box 32 on the mounting plate 11.

[0027] (3) Hammering component The hammering assembly in this embodiment includes a first upright plate 41 and a second upright plate 51 located on both sides of the first rotating wheel 33. Both the first upright plate 41 and the second upright plate 51 are fixedly connected to the mounting plate 11, and the first upright plate 41 and the second upright plate 51 are parallel to each other. In this embodiment, the first upright plate 41 is provided with a first hammering assembly corresponding to the annular groove 25, and the second upright plate 51 is provided with a second hammering assembly corresponding to the central channel 24.

[0028] Specifically, the first hammering assembly in this embodiment includes a first vertical slide rail 42 disposed on the first upright plate 41 and a first slider 43 slidably engaged with the first vertical slide rail 42. A first double-hinged connecting rod 44 is provided between the first slider 43 and the first side wall of the first rotating wheel 33. The hinge point between the first double-hinged connecting rod 44 and the first rotating wheel 33 has a first eccentricity relative to the axis of rotation of the first rotating wheel 33. A first hammering bracket 45 is mounted on the first slider 43, and a first hammer 46 that engages with the hammering groove 27 is mounted on the first hammering bracket 45. When the first hammer 46 hammers downward and engages with the first inclined surface 261, it drives the hammering disc 21 to rotate in the second direction. In a preferred embodiment of this embodiment, the first vertical slide rail 42 is provided in two sets, and each set of the first vertical slide rail 42 is equipped with a first slider 43. Both first sliders 43 are fixedly connected to the first hammering bracket 45, thereby improving the stability of the first hammering bracket 45 when it reciprocates along the vertical direction. In a preferred embodiment of this invention, the lower part of the radially inward inner surface of the first pounder 46 is provided with a pressing slope 461, which causes the thickness of the first pounder 46 to gradually decrease in the vertically downward direction. By providing the pressing slope 461, a radially inward force can be applied to the glutinous rice in the pounding groove 27, driving the glutinous rice to move towards the extrusion hole 28 and enter the central channel 24 through the extrusion hole 28. In this embodiment, the stroke of the first pounder 46 reciprocating along the first vertical slide rail 42 is equal to twice the first eccentricity.

[0029] In this embodiment, the second hammering assembly includes a second vertical slide rail 52 disposed on the second upright plate 51 and a second slider 53 slidably engaged with the second vertical slide rail 52. A second double-hinged connecting rod 54 is provided between the second slider 53 and the second side wall of the first rotating wheel 33. The hinge point between the second double-hinged connecting rod 54 and the first rotating wheel 33 has a second eccentricity relative to the axis of rotation of the first rotating wheel 33. A second hammering bracket 55 is mounted on the second slider 53, and a second hammering device 56 that engages with the central channel 24 is mounted on the second hammering bracket 55. Specifically, when the second hammering device 56 hammers downward and engages with the second inclined surface 241, it drives the hammering disc 21 to rotate in the second direction. In a preferred embodiment of this embodiment, the second vertical slide rail 52 is provided in two sets, and a second slider 53 is mounted on each set of second vertical slide rails 52. Both second sliders 53 are fixedly connected to the second hammering bracket 55, thereby improving the stability of the second hammering bracket 55 when it reciprocates along the vertical direction. In this embodiment, the outer diameter of the second hammer 56 is equal to twice the distance between the inner end of the second inclined surface 241 and the axis of the central channel 24, and the outer peripheral wall of the second hammer 56 is provided with a protrusion 561 for contacting and engaging with the second inclined surface 241. In this embodiment, the stroke of the second hammer 56 reciprocating along the second vertical slide rail 52 is equal to twice the second eccentricity.

[0030] In this embodiment, the angle between the line connecting the center of the first double-hinged link 44 and the center of the first rotating wheel 33 and the line connecting the second double-hinged link 54 and the center of the first rotating wheel 33 is 180°. Thus, during the rotation of the first rotating wheel 33, the first hammer 46 and the second hammer 56 can be driven to move in opposite directions in the vertical direction. That is, when the first hammer 46 moves downward to perform the hammering operation, the second hammer 56 moves upward and has completed the previous hammering operation; when the first hammer 46 moves upward and completes the previous hammering operation, the second hammer 56 moves downward to perform the next hammering operation, thus ensuring that the first hammer 46 and the second hammer 56 perform alternating hammering operations.

[0031] (4) Slicing component The dicing assembly includes a vertically positioned cutter handle 61 and a movable limiting member 62 for limiting the vertical movement of the cutter handle 61. A dicing linkage mechanism is provided between the cutter handle 61 and the second rotating wheel 34 for driving the cutter handle 61 to reciprocate vertically. In this embodiment, a cutter 63 is mounted on the lower end of the cutter handle 61, and the cutter 63 is aligned with the outlet of the conveying channel 22. In a preferred embodiment, a scraper 64 cooperating with the cutter 63 is mounted on the bracket 10 to scrape off the glutinous rice adhering to the cutter 63. The dicing linkage mechanism can be implemented in various ways. In this embodiment, the dicing linkage mechanism includes a first connecting rod 65 hinged to the second rotating wheel 34. A connecting block 66 is provided between the first connecting rod 65 and the cutter handle 61. The first connecting rod 65 and the cutter handle 61 are respectively hinged to the connecting block 66, and the connecting block 66 is hinged to the bracket 10.

[0032] The working principle of the single-power-source pounding and cutting glutinous rice cake integrated machine in this embodiment is as follows: When the motor 31 is started, the output shaft of the transmission box 32 rotates, driving the first rotating wheel 33 and the second rotating wheel 34 to rotate. Under the action of the first rotating wheel 33 and the first double-hinged connecting rod 44, the first slider 43 reciprocates along the first vertical slide rail 42, and simultaneously drives the first hammering bracket 45 and the first hammer 46 to reciprocate in the vertical direction. When the first hammer 46 moves downward, the first hammer 46 first contacts and engages with the first inclined surface 261. The action exerted by the first hammer 46 on the first inclined surface 261 has a tangential horizontal component force, driving the hammering disc 21 to rotate in the second direction. After setting the angle, it enters the pounding groove 27 to pound the glutinous rice; similarly, under the action of the first rotating wheel 33 and the second double hinge connecting rod 54, the second slider 53 moves back and forth along the second vertical slide rail 52; when the second slider 53 moves downward, the second pounder 56 first contacts and engages with the second inclined surface 241, and the force applied by the second pounder 56 to the second inclined surface has a tangential horizontal component, driving the pounding disc 21 to rotate in the second direction at the set angle and continue to pound the glutinous rice located in the central channel 24, and driving the glutinous rice in the conveying channel 22 to move forward.

[0033] The first hammer 46 and the second hammer 56 alternately perform hammering operations, meaning that the first hammer 46 and the second hammer 56 move in opposite directions in the vertical direction. Specifically, when the first hammer 46 moves downward to perform a hammering operation, the second hammer 56 moves upward and has completed the previous hammering operation. The first hammer 46's drive of the hammering disc 21 to rotate will not be interfered with by the second hammer 56. When the first hammer 46 moves upward and completes the previous hammering operation, the second hammer 56 moves downward to perform the next hammering operation. The second hammer 56's drive of the hammering disc 21 to rotate will not be interfered with by the first hammer 46. This ensures that the stepping rotation of the hammering disc 21 and the hammering operations of the first hammer 46 and the second hammer 56 can be carried out continuously.

[0034] Glutinous rice is fed forward in the conveying channel 22 and protrudes from the outlet of the conveying channel 22. Under the drive of the second rotating wheel 34 and the cutting linkage mechanism, the cutter handle 61 moves back and forth in the vertical direction, thereby driving the cutter 63 to cut the protruding glutinous rice and obtain a piece of glutinous rice cake. The rotation speed of the first rotating wheel 33 and the second rotating wheel 34 is equal. That is, every time the first pounder 46 and the second pounder 56 perform a pounding operation and drive the glutinous rice forward once, the cutter 63 immediately performs a cutting operation and obtains a piece of glutinous rice cake.

[0035] Note: In this article, "first direction" means clockwise and "second direction" means counterclockwise; or, "first direction" means counterclockwise and "second direction" means clockwise.

[0036] The above-described embodiments are merely preferred embodiments provided to fully illustrate the present invention, and the scope of protection of the present invention is not limited thereto. Equivalent substitutions or modifications made by those skilled in the art based on the present invention are all within the scope of protection of the present invention. The scope of protection of the present invention is defined by the claims.

Claims

1. A single-power-source pounding and cutting glutinous rice cake integrated machine, characterized in that: Includes a bracket, on which a mounting plate is provided; The mounting plate is equipped with a conveying assembly, a power assembly, a hammering assembly, and a cutting assembly; The conveying assembly includes a hammering disc and a conveying channel; a connecting channel is provided between the hammering disc and the conveying channel, the connecting channel is fixedly mounted on the mounting plate, the hammering disc is mounted above the connecting channel and can rotate relative to the connecting channel, and the conveying channel is connected to the lower end of the connecting channel; the hammering disc includes a coaxial central channel and an annular groove, and a first limiting structure is evenly distributed in a ring between the inner and outer walls of the annular groove. The top surface of the first limiting structure is a first inclined surface oriented towards a first direction, and the upper and lower ends of the first inclined surface are respectively provided with a first vertical surface and a second vertical surface extending downward to the bottom of the annular groove. In two adjacent first limiting structures, a hammering groove is formed between the first vertical surface of one first limiting structure and the second vertical surface of the other first limiting structure; the inner wall of the annular groove is provided with an extrusion hole for connecting the hammering groove and the central channel; the inner wall of the central channel is evenly distributed in a ring with second inclined surfaces oriented towards a first direction, the number of first inclined surfaces and second inclined surfaces are equal, and the first inclined surfaces and second inclined surfaces are staggered; the central channel is connected to the connecting channel; The power assembly includes a motor mounted on the mounting plate and a transmission box connected to the motor. The output shaft of the transmission box is equipped with a first wheel and a second wheel that rotate synchronously with it. The hammering assembly includes a first upright plate and a second upright plate located on both sides of the first rotating wheel, and both the first upright plate and the second upright plate are fixedly connected to the mounting plate; the first upright plate is provided with a first hammering assembly corresponding to the annular groove, and the second upright plate is provided with a second hammering assembly corresponding to the central channel. The first hammering assembly includes a first vertical slide rail disposed on the first upright plate and a first slider that slides in cooperation with the first vertical slide rail. A first double-hinged connecting rod is provided between the first slider and the first side wall of the first rotating wheel. The hinge point between the first double-hinged connecting rod and the first rotating wheel has a first eccentricity relative to the axis of rotation of the first rotating wheel. A first hammering bracket is mounted on the first slider, and a first hammering device that cooperates with the hammering groove is mounted on the first hammering bracket. When the first hammering device hammers downward and contacts and cooperates with the first inclined surface, it drives the hammering disc to rotate in the second direction. The second hammering assembly includes a second vertical slide rail disposed on the second upright plate and a second slider that slides in cooperation with the second vertical slide rail. A second double-hinged connecting rod is provided between the second slider and the second side wall of the first rotating wheel. The hinge point between the second double-hinged connecting rod and the first rotating wheel has a second eccentricity relative to the axis of rotation of the first rotating wheel. A second hammering bracket is mounted on the second slider, and a second hammering device that cooperates with the central channel is mounted on the second hammering bracket. When the second hammering device hammers downward and contacts and cooperates with the second inclined surface, it drives the hammering disc to rotate in the second direction. The angle between the line connecting the first double-hinged link and the center of the first rotating wheel and the line connecting the second double-hinged link and the center of the first rotating wheel is 180°. The cutting assembly includes a cutter handle located in the vertical direction and a moving limiter for limiting the movement of the cutter handle in the vertical direction. A cutting linkage mechanism for driving the cutter handle to reciprocate in the vertical direction is provided between the cutter handle and the second rotary wheel. A cutter is installed at the lower end of the cutter handle, and the cutter is aligned with the outlet of the conveying channel.

2. The single-power-source pounding and cutting glutinous rice cake integrated machine according to claim 1, characterized in that: The lower part of the radially inward inner side of the first hammer is provided with a pressing slope, which causes the thickness of the first hammer to gradually decrease along the vertically downward direction.

3. The single-power-source pounding and cutting glutinous rice cake integrated machine according to claim 1, characterized in that: The outer diameter of the second hammer is equal to twice the distance between the inner end of the second inclined surface and the axis of the central channel, and the outer peripheral wall of the second hammer is provided with a protrusion for contacting and engaging with the second inclined surface.

4. The single-power-source pounding and cutting glutinous rice cake integrated machine according to claim 1, characterized in that: In a vertically downward view, the sum of the angle of the first inclined plane relative to the center of the hammer plate and the angle of the second inclined plane relative to the center of the hammer plate satisfies: in, This indicates the angle of the first inclined plane relative to the center of the hammering disc; This indicates the angle of the second inclined plane relative to the center of the hammering disc; This indicates the number of rings evenly distributed on the first or second inclined plane.

5. The single-power-source pounding and cutting glutinous rice cake integrated machine according to claim 1, characterized in that: The diameter of the extrusion hole is smaller than the particle size of the cooked glutinous rice.

6. The single-power-source pounding and cutting glutinous rice cake integrated machine according to claim 1, characterized in that: The conveying channel includes a vertical section, an inclined section, and a horizontal section. The inclined section is located between the vertical section and the horizontal section. The vertical section is fixedly connected to the lower end of the connecting channel. The diameter of the inclined section gradually decreases along the direction from the vertical section to the horizontal section, and the upper and lower ends of the inclined section are respectively connected to the vertical section and the horizontal section.

7. The single-power-source pounding and cutting glutinous rice cake integrated machine according to claim 6, characterized in that: The horizontal segment and the lower end of the inclined segment are detachably connected.

8. The single-power-source pounding and cutting glutinous rice cake integrated machine according to claim 1, characterized in that: A scraper that cooperates with the cutter is mounted on the bracket.

9. The single-power-source pounding and cutting glutinous rice cake integrated machine according to any one of claims 1-8, characterized in that: The cutting linkage mechanism includes a first link hinged to the second rotating wheel, a connecting block between the first link and the cutter handle, the first link and the cutter handle being hinged to the connecting block respectively, and the connecting block being hinged to the bracket.

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