A dissolving mechanism for detecting hawthorn slices

Abstract

The present application discloses a dissolving mechanism for detecting hawthorn slices, which comprises a dissolving cylinder, a supporting leg being fixedly mounted on the lower end of the dissolving cylinder, a top cover being arranged on the top end of the dissolving cylinder, and a discharge port being arranged on the outer surface of the lower end of the dissolving cylinder. The present invention provides a two-way stirring mechanism through a dissolving component, so that the hawthorn can be quickly dissolved, and the hawthorn raw material and seasoning can be quickly mixed, and at the same time, sedimentation at the bottom during dissolution can be prevented, so that the dissolution is more complete. The hawthorn raw material can be dispersed and fed through a feeding component to avoid stacking of raw materials and reducing the dissolution efficiency, and the feeding mechanism can be adjusted according to the size of the raw materials to prevent material jamming. The feeding component can be used to quantitatively feed seasonings for different seasonings, and the amount of seasoning can be adjusted according to actual needs, so that the seasoning and hawthorn raw material are mixed to produce hawthorn slices with better taste.

Description

Technical Field

[0001] The present application relates to the technical field of dissolution equipment, and in particular to a dissolution mechanism for detecting hawthorn slices. Background Art

[0002] Hawthorn slices, also known as hawthorn cakes, are made from hawthorn as the main material and are refined through multiple processes such as material selection, cleaning, steaming, beating, molding, drying, and packaging. As a traditional Chinese medicinal material and health food, hawthorn slices are rich in active ingredients such as flavonoids and triterpenoids, and have significant effects in lipid-lowering, anti-oxidation, and blood pressure regulation, and are deeply loved by consumers. However, in the production and quality control process of hawthorn slices, how to accurately and efficiently detect the dissolution of its active ingredients has become a key issue, and seasonings such as rock sugar powder, white sugar or maltose need to be added during the dissolution process to make the hawthorn slices have a better taste.

[0003] The existing technology still has the following problems:

[0004] 1. Existing dissolution mechanisms mostly use unidirectional stirring to dissolve hawthorn, which results in low dissolution efficiency. Bottom sedimentation is prone to occur during the stirring process, resulting in incomplete bottom dissolution. Incomplete dissolution means that some components in the sample are not completely released into the solution, which may lead to low subsequent component analysis results, and thus fail to accurately reflect the true quality of the sample. Undissolved solid particles may exist in the solution as impurities, interfering with the accuracy of the test results.

[0005] 2. The existing dissolving mechanisms are all manually loaded. The processed hawthorn slices are placed in the dissolving mechanism. However, directly placing the hawthorn raw materials in the solvent mechanism is likely to cause the raw materials to stack together, resulting in reduced stirring and mixing efficiency, increased dissolution time, and reduced production efficiency. In addition, some of the materials are loaded through the loading mechanism, which is difficult to adjust according to the size of the raw materials, resulting in material jamming.

[0006] 3. In the process of hawthorn production, seasonings need to be added to satisfy the taste, but it is difficult to accurately control the amount of material added by manual direct feeding, which makes it easy to add too much or too little, reducing the taste of the finished hawthorn slices. Summary of the invention

[0007] The present application solves the problems of bottom sedimentation, raw material stacking, and inaccurate seasoning dosage in the prior art by providing a dissolving mechanism for detecting hawthorn slices. It prevents bottom sedimentation during dissolution, enables dispersed feeding of hawthorn raw materials, and quantitative seasoning dosage.

[0008] The present application provides a dissolving mechanism for detecting hawthorn slices, comprising a dissolving cylinder, a supporting leg is fixedly installed at the lower end of the dissolving cylinder, a top cover is arranged at the top of the dissolving cylinder, a discharge port is arranged on the outer surface of the lower end of the dissolving cylinder, a dissolving component is arranged on the inner cavity of the dissolving cylinder, a feeding component is arranged on the lower surface of the top cover, a feeding component is arranged on the upper surface of the top cover, a feeding port is arranged on the upper surface of the top cover, an operation panel is slidably connected to the upper surface of the top cover, an operation port is opened on the outer surface of the top cover, and the operation panel is located on the upper surface of the operation port, the feeding component comprises a first bulk material sleeve, a second bulk material sleeve is fixedly connected to the inner cavity of the first bulk material sleeve, an expansion sleeve is fixedly installed at the top end of the first bulk material sleeve, a connecting ring is fixedly installed at the bottom end of the first bulk material sleeve and the second bulk material sleeve, an adjusting component is arranged on the outer surface of the connecting ring, and the two connecting rings are connected through the adjusting component, a belt is arranged below the top cover, a shaking mechanism is arranged on one side of the top end of the extension sleeve, an elastic mechanism is fixedly installed on the top end of the second bulk material sleeve, a pressure rod is fixedly installed on the lower surface of the top cover, and the elastic mechanism and the top cover are rotatably connected.

[0009] Furthermore, the adjusting assembly includes a first connecting block, the first connecting block and the connecting ring where the second bulk material sleeve is located are fixedly connected, the inner cavity of the first connecting block is rotatably connected with the second threaded rod, the four corners of the first connecting block are fixedly installed with a storage rod, the upper surface of the first connecting block is slidably connected with a moving block, the outer surface of the moving block is fixedly installed with a driving rod, the moving block and the second threaded rod are connected by threads, the inner cavity of the storage rod is slidably connected with a lifting rod, the upper surface of the lifting rod is fixedly installed with a lifting block, the lower surface of the lifting block is fixedly installed with the driving block, the outer surface of the driving block is provided with a driving groove, the driving groove and the driving rod are slidably connected, the lifting block and the connecting ring where the first bulk material sleeve is located are fixedly connected, the upper surface of the lifting block is fixedly installed with a first buffer rod, the outer surface of the first buffer rod is sleeved with a second spring, the first buffer rod and the connecting ring where the first bulk material sleeve is located are slidably connected, and the second spring is located between the connecting ring and the first buffer rod.

[0010] Furthermore, the shaking mechanism includes a first connecting frame, the inner cavity of the first connecting frame is slidably connected with a first plug rod, the outer surface of the first plug rod is fixedly installed with a first fixing ring, the outer surface of the first plug rod is sleeved with a fourth spring, the fourth spring is located between the first fixing ring and the first connecting frame, the inner cavity of the first connecting frame is slidably connected with a first adjusting rod, the outer surface of the first adjusting rod is provided with a first plug hole, the first plug hole and the first plug rod are plugged into, the top of the first adjusting rod is fixedly installed with a second protrusion, the two ends of the second protrusion are inclined downward, the distances between the second protrusion and the pressure rod to the elastic mechanism are equal, the first connecting frame and the extension sleeve are fixedly connected, and the first bulk material sleeve is located directly below the top cover.

[0011] Furthermore, the elastic mechanism includes a transmission rod, the inner cavity of the transmission rod is slidably connected with a second buffer rod, the top of the second buffer rod is fixedly installed with a stopper, the stopper and the transmission rod are slidably connected, the outer surface of the second buffer rod is sleeved with a fifth spring, the fifth spring is located between the stopper and the inner wall of the transmission rod, the bottom end of the second buffer rod is fixedly installed with a connecting head, the connecting head is fixedly connected to the top of the second bulk material sleeve, the transmission rod is sleeved with a belt, there is a gap between the first bulk material sleeve and the second bulk material sleeve, and the transmission rod and the top cover are rotatably connected.

[0012] Furthermore, the dissolving component includes a motor, which is fixedly connected to the top cover, and a two-way stirring mechanism is provided on the lower surface of the top cover. A first stirring frame is sleeved on the outer surface of the two-way stirring mechanism, and a second stirring frame is sleeved on the bottom end of the two-way stirring mechanism. The first stirring frame is threadedly connected to a first threaded rod on both sides, and a material shaking mechanism is provided on the bottom wall of the dissolving cylinder.

[0013] Furthermore, the bidirectional stirring mechanism includes a first fixed frame, the first fixed frame and the lower surface of the top cover are fixedly connected, the outer surface of the first fixed frame is rotatably connected to the first bevel gear, the inner cavity of the first fixed frame is rotatably connected to the first rotating rod, the bottom end of the first rotating rod is fixedly installed with the second bevel gear, the bottom end of the second bevel gear is fixedly installed with a connecting rod, the inner cavity at the bottom end of the first fixed frame is rotatably connected to the second rotating rod, the top end of the second rotating rod is fixedly installed with a third bevel gear, the second bevel gear and the third bevel gear are both meshed with the first bevel gear, the connecting rod passes through the third bevel gear and the second rotating rod, the connecting rod is rotatably connected to the second rotating rod and the third bevel gear, and the connecting rod and the second stirring frame are fixedly sleeved, the first rotating rod is sleeved with the output end of the motor, the first rotating rod is rotatably connected to the top cover, the first rotating rod is sleeved with the belt, the second rotating rod is fixedly connected to the first stirring frame, and the two ends of the first stirring frame are in contact with the inner wall of the dissolution cylinder.

[0014] Furthermore, the material shaking mechanism includes a sliding plate, which is slidingly connected to the inner wall of the dissolving cylinder, and the sliding plate and the inner wall of the dissolving cylinder are in close contact, a first protrusion is fixedly installed on the upper surface of the sliding plate, two ends of the first protrusion are inclined, and both sides are flush with the sliding plate, when the first stirring frame rotates, the first threaded rod passes through the first protrusion, a buffer plate is fixedly installed on the inner wall of the bottom end of the dissolving cylinder, a sliding rail is fixedly installed on the middle part of the buffer plate, the inner walls of both ends of the sliding rail are fixedly connected with first springs, a sliding block is slidingly connected to the inner cavity of the sliding rail, the first spring is located between the sliding rail and the sliding block, the side of the sliding block away from the first spring is rotatably connected with a connecting strip, the middle part of the buffer plate is slidably connected with a buffer frame, the two ends of the buffer frame are rotatably connected to the connecting strip, a supporting plate is fixedly installed on the top of the buffer frame, and the supporting plate and the sliding plate are fixedly connected.

[0015] Furthermore, the feeding assembly includes a feeding barrel, the inner wall of which is fixedly mounted with a partition plate, which divides the inner cavity of the feeding barrel into four equal spaces, a feeding port is provided on the bottom wall of the feeding barrel, the feeding port and the partition plate are arranged alternately, a second fixing frame is fixedly mounted on the outer surface of the feeding barrel, the second fixing frame and the top cover are fixedly connected, a second connecting block is fixedly mounted on the outer surface of the feeding barrel, there are four second connecting blocks, the second connecting blocks are located in the middle part of the intersection of the partition plates, a pointer is fixedly mounted on the outer surface of the second connecting block, and a quantity adjustment mechanism is arranged at the bottom end of the feeding barrel.

[0016] The cam is connected with the bottom end of the first support frame, and the cam is connected with the bottom end of the first support frame by the spring, and the cam is connected with the bottom end of the first support frame by the spring.

[0017] Furthermore, the baffle plate and the top of the baffle ring are flush, the baffle plate contacts the bottom wall of the feeding barrel, the second limit block and the adjusting frame are slidably connected, the second adjusting rod and the middle part of the feeding barrel are rotatably connected, the hose is located below the discharge hole, the hose passes through the top cover and is connected to the inner cavity of the dissolving barrel, and is rotatably connected to the top cover, the sixth spring is located between the second connecting frame and the second fixed ring, the second plug rod and the second plug hole are inserted, there is a gap between the bottom end of the adjusting frame and the upper surface of the top cover, the baffle plate is moved when the pointer points to the middle part of the baffle plate, and the first discharge barrel passes directly below the discharge port.

[0018] The technical solution provided by this application has at least the following technical effects or advantages:

[0019] 1. The use of a dissolving component effectively solves the problem that the existing dissolving mechanisms mostly use unidirectional stirring to dissolve hawthorn, resulting in low dissolution efficiency and bottom sedimentation is prone to occur during the stirring process, resulting in incomplete dissolution at the bottom. Incomplete dissolution means that certain components in the test sample have not been completely released into the solution, which may lead to low subsequent component analysis results, thereby failing to accurately reflect the true quality of the test sample. Undissolved solid particles may exist in the solution as impurities, interfering with the accuracy of the test results. The present invention has a bidirectional stirring mechanism through the dissolving component, so that the hawthorn can be quickly dissolved, and the hawthorn raw material and seasoning can be quickly mixed. At the same time, it can prevent the phenomenon of sedimentation at the bottom during dissolution, so that the dissolution is more sufficient, which is convenient for more accurate data during detection and accurately reflects the true quality of the test sample.

[0020] 2. The use of a feeding component effectively solves the problem that the existing dissolving mechanisms all use manual feeding. The processed hawthorn slices are placed in the dissolving mechanism, but directly placing the hawthorn raw materials in the solvent mechanism tends to cause the raw materials to stack together, which reduces the stirring and mixing efficiency, increases the dissolution time, and reduces the production efficiency. In addition, some of the materials that are fed through the feeding mechanism are difficult to adjust according to the size of the raw materials, which causes the material to get stuck. The present invention can disperse the hawthorn raw materials through the feeding component to avoid the stacking of raw materials and reduce the dissolution efficiency, and can adjust the feeding mechanism according to the size of the raw materials to prevent material jamming. At the same time, it has a certain flexibility when the material is stuck, and can be used with the shaking mechanism to throw out the stuck raw materials, further reducing the material jamming phenomenon.

[0021] 3. The use of a feeding component effectively solves the problem of adding seasonings to satisfy the taste during the production process of hawthorn. However, it is difficult to accurately control the amount of material added by manual direct feeding, which easily leads to over- or under-feeding, reducing the taste of the finished hawthorn slices. The present invention can quantitatively add seasonings to different seasonings through the feeding component, and can adjust the amount of seasonings according to actual needs, so that the seasonings and hawthorn raw materials are mixed to produce hawthorn slices with better taste. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 This is a schematic diagram of the overall structure of Example 1 of the present application;

[0023] Figure 2 This is a schematic cross-sectional view of the dissolving cylinder structure in Example 1 of the present application;

[0024] Figure 3 This is a schematic diagram of the top cover structure in Example 1 of the present application;

[0025] Figure 4 This is a schematic diagram of the structure of the bidirectional stirring mechanism in Example 1 of the present application;

[0026] Figure 5 This is a schematic cross-sectional view of the sliding disk structure in the first embodiment of the present application;

[0027] Figure 6 This is a schematic diagram of the connecting strip structure in Example 1 of the present application;

[0028] Figure 7 This is a schematic diagram of the belt structure in Example 1 of the present application;

[0029] Figure 8 This is a schematic diagram of the expansion sleeve structure in Example 1 of the present application;

[0030] Fig. 9 This is a schematic diagram of the structure of the adjustment component in Example 1 of the present application;

[0031] Fig.10 This is a schematic diagram of the structure of the shaking mechanism in the first embodiment of the present application;

[0032] Fig.11 This is a schematic diagram of the elastic mechanism structure in Example 1 of the present application;

[0033] Fig.12 This is a schematic diagram of the structure of the feeding component in Example 2 of the present application;

[0034] Fig.13 This is a schematic diagram of the pointer structure in the second embodiment of the present application;

[0035] Fig.14 This is a schematic diagram of the structure of the adjustment mechanism in the second embodiment of the present application;

[0036] Fig.15 This is a schematic diagram of the structure of the metering frame in the second embodiment of the present application.

[0037] In the figure: 1, dissolving cylinder; 2, supporting legs; 3, top cover; 4, discharging port; 5, dissolving assembly; 51, motor; 52, two-way stirring mechanism; 521, first fixed frame; 522, first bevel gear; 523, first rotating rod; 524, second bevel gear; 525, connecting rod; 526, second rotating rod; 527, third bevel gear; 53, first stirring frame; 54, second stirring frame; 55, first threaded rod; 56, shaking mechanism; 561, sliding plate; 562, first protrusion; 563, buffer plate; 564, sliding plate rail; 565, first spring; 566, slider; 567, connecting strip; 568, buffer rack; 569, support plate; 6, feed assembly; 61, first bulk material sleeve; 62, second bulk material sleeve; 63, expansion sleeve; 64, connecting ring; 65, adjustment assembly; 651, first connecting block; 652, second threaded rod; 653, storage rod; 654, moving block; 655, driving rod; 656, lifting rod; 657, lifting block; 658, driving block; 659, driving slot; 6510, first buffer rod; 6511, second second spring; 66, belt; 67, shaking mechanism; 671, first connecting frame; 672, first plug rod; 673, first fixing ring; 674, fourth spring; 675, first adjusting rod; 676, first plug hole; 677, second protrusion; 68, elastic mechanism; 681, transmission rod; 682, second buffer rod; 683, stopper; 684, fifth spring; 685, connector; 69, pressure rod; 7, feeding assembly; 71, feeding barrel; 72, partition plate; 73, discharge port; 74, second fixing frame; 75, first The second connecting block; 76, pointer; 77, adjusting mechanism; 771, shielding ring; 772, first limit block; 773, shielding plate; 774, first discharge barrel; 775, second discharge barrel; 776, hand lever; 777, adjusting frame; 778, second limit block; 779, second adjusting rod; 7710, hose; 7711, discharge hole; 7712, second connecting frame; 7713, second plug rod; 7714, sixth spring; 7715, second fixing ring; 7716, second plug hole; 8, feed port; 9, operating panel. DETAILED DESCRIPTION

[0038] With regard to the single-direction stirring method generally used to dissolve hawthorn, the present invention provides a two-way stirring mechanism in the dissolving component to enable the hawthorn to be quickly dissolved; with regard to the direct placement of hawthorn raw materials in the solvent mechanism which tends to cause the raw materials to be stacked together, the present invention can disperse the hawthorn raw materials through the feeding component to avoid the stacking of raw materials which reduces the dissolution efficiency; with regard to the difficulty in accurately controlling the amount of materials to be fed, the present invention can quantitatively feed different seasonings through the feeding component.

[0039] In order to better understand the above technical solution, the above technical solution will be described in detail below in conjunction with the accompanying drawings and specific implementation methods.

[0040] Example 1: Please refer to Figure 1 and Figure 2 As shown, a dissolving mechanism for detecting hawthorn slices comprises a dissolving cylinder 1, a supporting leg 2 is fixedly mounted on the lower end of the dissolving cylinder 1, a top cover 3 is arranged on the top end of the dissolving cylinder 1, a discharging port 4 is arranged on the outer surface of the lower end of the dissolving cylinder 1, a dissolving component 5 is arranged in the inner cavity of the dissolving cylinder 1, a feeding component 6 is arranged on the lower surface of the top cover 3, a feeding component 7 is arranged on the upper surface of the top cover 3, a feeding port 8 is arranged on the upper surface of the top cover 3, an operating panel 9 is slidably connected to the upper surface of the top cover 3, an operating port is opened on the outer surface of the top cover 3, and the operating panel 9 is located on the upper surface of the operating port, the dissolving cylinder 1 is used to hold the dissolved raw materials, the supporting leg 2 is used to support the dissolving cylinder 1, the top cover 3 is used to close the dissolving cylinder 1, the discharging port 4 is used to detect the discharging, and the dissolving cylinder 1 can be opened at the same time. The top cover 3 is used for separating the materials from the top cover for large-scale discharging. The dissolving component 5 is used for stirring and dissolving the raw materials and mixing the seasonings during the hawthorn production process. The feeding component 7 is used for quantitatively increasing the seasonings. The feeding port 8 is used for feeding the raw materials so that the raw materials can be dispersed and fed from the feeding component 6. The sliding operation panel 9 is used to observe the internal situation and operate the inside of the dissolving cylinder 1. In the actual dissolution process, the processed hawthorn raw materials are placed in the inner cavity of the dissolving cylinder 1, stirred and dissolved by the dissolving component 5, and the partially dissolved hawthorn is taken out through the discharge port 4 for testing. Seasonings are added through the feeding component 7, and the seasonings and hawthorn are mixed. After uniform mixing, a small amount of the mixture is taken out through the discharge port 4 for re-testing, so that the produced hawthorn slices meet the production requirements.

[0041] See also Figure 3 As shown, the dissolving component 5 includes a motor 51, which is fixedly connected to the top cover 3, and a two-way stirring mechanism 52 is arranged on the lower surface of the top cover 3. The outer surface of the two-way stirring mechanism 52 is sleeved with a first stirring frame 53, and the bottom end of the two-way stirring mechanism 52 is sleeved with a second stirring frame 54. The two sides of the first stirring frame 53 are connected with a first threaded rod 55 through threads, and a material shaking mechanism 56 is arranged on the bottom wall of the dissolving cylinder 1. Through the operation of the motor 51, the two-way stirring mechanism 52 drives the first stirring frame 53 and the second stirring frame 54 to rotate forward and reverse, so as to accelerate the dissolution of the hawthorn raw material, and the first threaded rod 55 is used to cooperate with the material shaking mechanism 56 to prevent sedimentation at the bottom and fully dissolve the hawthorn.

[0042] See also Figure 3 and Figure 4As shown, the bidirectional stirring mechanism 52 includes a first fixed frame 521, the first fixed frame 521 is fixedly connected to the lower surface of the top cover 3, the outer surface of the first fixed frame 521 is rotatably connected to the first bevel gear 522, the inner cavity of the first fixed frame 521 is rotatably connected to the first rotating rod 523, the bottom end of the first rotating rod 523 is fixedly installed with a second bevel gear 524, the bottom end of the second bevel gear 524 is fixedly installed with a connecting rod 525, the bottom end inner cavity of the first fixed frame 521 is rotatably connected to the second rotating rod 526, and the second rotating rod 527 is rotatably connected to the second rotating rod 528. The third bevel gear 527 is fixedly installed on the top of the movable rod 526, and the second bevel gear 524 and the third bevel gear 527 are both meshed with the first bevel gear 522. The connecting rod 525 passes through the third bevel gear 527 and the second rotating rod 526. The connecting rod 525 is rotatably connected with the second rotating rod 526 and the third bevel gear 527, and the connecting rod 525 is fixedly sleeved with the second stirring frame 54, the first rotating rod 523 is sleeved with the output end of the motor 51, and the first rotating rod 523 is rotatably connected with the top cover 3. The second rotating rod 526 is connected to the first stirring frame 53 and is sleeved with the belt 66. The second rotating rod 526 is fixedly connected to the first stirring frame 53. The two ends of the first stirring frame 53 are in contact with the inner wall of the dissolving cylinder 1, which is convenient for cleaning the inner wall of the dissolving cylinder 1 and preventing the raw materials from adhering to the inner wall of the dissolving cylinder 1. The operation of the motor 51 drives the first rotating rod 523 to rotate on the first fixed frame 521. The rotation of the first rotating rod 523 drives the second bevel gear 524 to rotate. The rotation of the second bevel gear 524 drives the first bevel gear 522 to rotate on the first fixed frame 521. The rotation of the first fixed frame 521 drives the third bevel gear 527 to rotate. At this time, the second bevel gear 524 and the third bevel gear 527 rotate in opposite directions. The rotation of the second bevel gear 524 drives the connecting rod 525 to rotate. The rotation of the connecting rod 525 drives the second stirring frame 54 to rotate. The rotation of the third bevel gear 527 drives the second rotating rod 526 to rotate. The rotation of the second rotating rod 526 drives the first stirring frame 53 to rotate, so that the first stirring frame 53 and the second stirring frame 54 can realize positive and reverse rotation, which is convenient for better stirring and dissolving the hawthorn raw material.

[0043] See also Figure 3 , Figure 4 and Figure 6As shown, the material shaking mechanism 56 includes a sliding plate 561, which is slidably connected to the inner wall of the dissolving cylinder 1, and the sliding plate 561 is in close contact with the inner wall of the dissolving cylinder 1. A first protrusion 562 is fixedly installed on the upper surface of the sliding plate 561. The two ends of the first protrusion 562 are inclined, and the two sides are flush with the sliding plate 561. When the first stirring frame 53 rotates, the first threaded rod 55 passes through the first protrusion 562. A buffer plate 563 is fixedly installed on the inner wall of the bottom end of the dissolving cylinder 1, and a slide rail 564 is fixedly installed on the middle part of the buffer plate 563. The inner walls of both ends of the slide rail 564 are fixedly connected with first springs 565, the inner cavity of the slide rail 564 is slidably connected with a slider 566, the first spring 565 is located between the slide rail 564 and the slider 566, the slider 566 is rotatably connected with a connecting strip 567 on the side away from the first spring 565, the middle part of the buffer plate 563 is slidably connected with a buffer frame 568, the two ends of the buffer frame 568 are rotatably connected with the connecting strip 567, the top of the buffer frame 568 is fixedly installed with a support plate 569, the support plate 569 and the slide plate 561 is fixedly connected, and the inside of the dissolving cylinder 1 is operated by moving the operation plate 9. The first threaded rod 55 is rotated to change the position of the first threaded rod 55 in the inner cavity of the first stirring frame 53. The first stirring frame 53 rotates and drives the first threaded rod 55 to pass through the first protrusion 562, so that the first protrusion 562 is pressed downward. The downward pressure of the first protrusion 562 causes the sliding plate 561 to slide downward in the inner cavity of the dissolving cylinder 1. The sliding of the sliding plate 561 drives the supporting plate 569 to move downward. The downward movement of the supporting plate 569 drives the buffer frame 568 to slide downward in the inner cavity of the buffer plate 563. At this time, the connecting bar 567 rotates, and the rotation of the connecting bar 567 drives the sliding block 566 to slide in the inner cavity of the sliding rail 564. The sliding of the sliding block 566 drives the sliding block 566 to squeeze the first spring 565. At the same time, the sliding plate 561 moves upward under the elastic force of the first spring 565, so that the raw material in the inner cavity of the dissolving cylinder 1 is shaken to prevent the raw material from settling, thereby cooperating with the stirring of the hawthorn raw material in the first stirring frame 53 and the second stirring frame 54 to make the raw material dissolved more fully.

[0044] See also Figure 3 , Figure 7 and Figure 8As shown, the feeding assembly 6 includes a first bulk material sleeve 61, the inner cavity of the first bulk material sleeve 61 is provided with a second bulk material sleeve 62, the top of the first bulk material sleeve 61 is fixedly connected with an expansion sleeve 63, and the bottom ends of the first bulk material sleeve 61 and the second bulk material sleeve 62 are fixedly installed with a connecting ring 64 in order to better allow the raw materials to enter between the first bulk material sleeve 61 and the second bulk material sleeve 62. The outer surface of the connecting ring 64 is provided with an adjusting assembly 65, and the two connecting rings 64 are connected by the adjusting assembly 65. A belt 66 is provided below the top cover 3, and a shaking mechanism 67 is provided on one side of the top of the expansion sleeve 63. An elastic mechanism 68 is fixedly installed on the top of the second bulk material sleeve 62, and a pressure rod 69 is fixedly installed on the lower surface of the top cover 3. The force mechanism 68 is rotatably connected to the top cover 3, the rotation of the first rotating rod 523 drives the belt 66 to rotate, the rotation of the belt 66 drives the elastic mechanism 68 to rotate, the rotation of the elastic mechanism 68 drives the second bulk material sleeve 62 to rotate, the rotation of the second bulk material sleeve 62 drives the first bulk material sleeve 61 to rotate as a whole, so that the hawthorn raw material entering the inner cavity of the expansion sleeve 63 from the feed inlet 8 can be dispersed and fed to prevent the raw materials from stacking and being inconvenient to dissolve. The adjustment component 65 is used to control the gap between the first bulk material sleeve 61 and the second bulk material sleeve 62, so as to facilitate adjustment according to the size of the raw materials. The pressure rod 69 is used to squeeze the shaking mechanism 67 to make the elastic mechanism 68 shake, drive the first bulk material sleeve 61 and the second bulk material sleeve 62 to shake, and prevent the material from getting stuck.

[0045] See also Figure 8 and Fig. 9As shown, the adjustment assembly 65 includes a first connecting block 651, the first connecting block 651 and the connecting ring 64 where the second bulk material sleeve 62 is located are fixedly connected, the inner cavity of the first connecting block 651 is rotatably connected to the second threaded rod 652, and the four corners of the first connecting block 651 are fixedly installed with a storage rod 653, the upper surface of the first connecting block 651 is slidably connected to a moving block 654, and the outer surface of the moving block 654 is fixedly installed with a driving rod 655, the moving block 654 and the second threaded rod 652 are connected by threads, the inner cavity of the storage rod 653 is slidably connected to a lifting rod 656, and the upper surface of the lifting rod 656 is fixedly installed with a lifting block 657, and the lifting block A driving block 658 is fixedly installed on the lower surface of 657, and a driving groove 659 is opened on the outer surface of the driving block 658. The driving groove 659 and the driving rod 655 are slidably connected. The lifting block 657 is fixedly connected to the connecting ring 64 where the first bulk material sleeve 61 is located. A first buffer rod 6510 is fixedly installed on the upper surface of the lifting block 657. The outer surface of the first buffer rod 6510 is sleeved with a second spring 6511. The first buffer rod 6510 and the connecting ring 64 where the first bulk material sleeve 61 is located are slidably connected. The second spring 6511 is located between the connecting ring 64 and the first buffer rod 6510. When the gap between the first bulk material sleeve 61 and the second bulk material sleeve 62 is adjusted, the first buffer rod 6510 is fixedly connected to the connecting ring 64 where the first bulk material sleeve 61 is located. During adjustment, in order to avoid material jamming, the second threaded rod 652 is rotated to make the moving block 654 slide on the first connecting block 651. The sliding of the moving block 654 drives the driving rod 655 to slide in the inner cavity of the driving groove 659 on the driving block 658, thereby driving the driving block 658 to move up and down. The movement of the driving block 658 drives the lifting block 657 to move. The movement of the lifting block 657 drives the lifting rod 656 to move in the inner cavity of the storage rod 653. At this time, the distance between the lifting block 657 and the first connecting block 651 changes, that is, the distance between the connecting rings 64 changes, thereby changing the gap between the first bulk material sleeve 61 and the second bulk material sleeve 62, which is convenient for The gap between the first bulk material sleeve 61 and the second bulk material sleeve 62 is adjusted as needed. At the same time, the second spring 6511 flexibly fixes the upper connecting ring 64, and has a certain flexible force when the material is stuck. When the raw material is too large and is stuck in the inner cavity of the first bulk material sleeve 61 and the second bulk material sleeve 62, the second spring 6511 is compressed by pressure, and the first buffer rod 6510 slides on the connecting ring 64. The spacing between the connecting rings 64 increases. At this time, the material will not be stuck due to the fixed distance of the connecting rings 64. The material will be thrown out during the rotation of the first bulk material sleeve 61 and the second bulk material sleeve 62 and the shaking of the first bulk material sleeve 61, thereby further reducing the risk of material sticking.

[0046] See also Figure 8 , Fig.10 and Fig.11As shown, the shaking mechanism 67 includes a first connecting frame 671, the inner cavity of the first connecting frame 671 is slidably connected with a first plug rod 672, the outer surface of the first plug rod 672 is fixedly installed with a first fixing ring 673, the outer surface of the first plug rod 672 is sleeved with a fourth spring 674, the fourth spring 674 is located between the first fixing ring 673 and the first connecting frame 671, the inner cavity of the first connecting frame 671 is slidably connected with a first adjusting rod 675, the outer surface of the first adjusting rod 675 is provided with a first plug hole 676, the first plug hole 676 and the first plug rod 672 are plugged together, the top of the first adjusting rod 675 is fixedly installed with a second protrusion 677, the two ends of the second protrusion 677 are inclined downward, and the distance between the second protrusion 677 and the pressure rod 69 and the elastic mechanism 68 is the same. The first connecting frame 671 is fixedly connected to the expansion sleeve 63, the first bulk material sleeve 61 is located directly below the top cover 3, the elastic mechanism 68 includes a transmission rod 681, the inner cavity of the transmission rod 681 is slidably connected to the second buffer rod 682, the top of the second buffer rod 682 is fixedly installed with a stopper 683, the stopper 683 and the transmission rod 681 are slidably connected, the outer surface of the second buffer rod 682 is sleeved with a fifth spring 684, the fifth spring 684 is located between the stopper 683 and the inner wall of the transmission rod 681, the bottom end of the second buffer rod 682 is fixedly installed with a connector 685, the connector 685 is fixedly connected to the top of the second bulk material sleeve 62, the transmission rod 681 is sleeved with the belt 66, there is a gap between the first bulk material sleeve 61 and the second bulk material sleeve 62, the transmission rod 6 81 is rotatably connected to the top cover 3, and the first connecting frame 671 is driven to rotate under the rotation of the expansion sleeve 63. The rotation of the first connecting frame 671 drives the second protrusion 677 to contact the pressure rod 69 when passing through the pressure rod 69. At this time, the first connecting frame 671 drives the expansion sleeve 63 to move downward, and the downward movement of the expansion sleeve 63 drives the connecting head 685 to move downward. The downward movement of the connecting head 685 drives the second buffer rod 682 to slide in the inner cavity of the transmission rod 681. The sliding of the second buffer rod 682 drives the stopper 683 to squeeze the fifth spring 684. Under the elastic force of the fifth spring 684, the second buffer rod 682 returns to its original position. At this time, the first bulk material sleeve 61 and the second bulk material sleeve 62 shake to prevent the material from being stuck between the first bulk material sleeve 61 and the second bulk material sleeve 62. The height of the second protrusion 677 is adjusted to change the shaking amplitude of the expansion sleeve 63, which is convenient for adjustment according to actual needs. The first plug rod 672 and the first plug hole 676 are disengaged by pulling the first plug rod 672. At this time, the second protrusion 677 is moved to change the position of the first adjustment rod 675 in the inner cavity of the first connecting frame 671. When it reaches a suitable position, the first plug rod 672 is released, and the elastic force of the fourth spring 674 drives the first fixing ring 673 to move toward the first plug hole 676, so that the first plug rod 672 and the first plug hole 676 are plugged again, so that the height of the second protrusion 677 changes. At this time, the second protrusion 677 changes the extrusion force generated by the pressure rod 69, thereby changing the shaking amplitude of the first bulk material sleeve 61.The material can be thrown off according to the demand to prevent the material from getting stuck. When adjusting the height of the second protrusion 677, it is necessary to always keep the inclined surface of the second protrusion 677 in contact with the pressure rod 69 to prevent the second protrusion 677 and the pressure rod 69 from getting stuck.

[0047] Example 2: Please refer to Fig.12 and Fig.13 As shown, the feeding assembly 7 includes a feeding barrel 71, the inner wall of which is fixedly installed with a partition plate 72, the partition plate 72 divides the inner cavity of the feeding barrel 71 into four equal spaces, the bottom wall of the feeding barrel 71 is provided with a feeding port 73, the feeding port 73 and the partition plate 72 are arranged alternately, the outer surface of the feeding barrel 71 is fixedly installed with a second fixing frame 74, the second fixing frame 74 and the top cover 3 are fixedly connected, the outer surface of the feeding barrel 71 is fixedly installed with a second connecting block 75, there are four second connecting blocks 75, the second connecting block 75 is located in the middle part of the intersection of the partition plates 72, a label can be affixed to the second connecting block 75, and the corresponding partition plate 72 is used to separate the space into spaces and put the labeled seasonings, and the second connecting block 75 is fixedly installed with a second fixing frame 74. A pointer 76 is fixedly installed on the outer surface of the connecting block 75, and a metering mechanism 77 is provided at the bottom end of the feeding barrel 71. The seasonings needed for dissolving and mixing the hawthorn slices are placed in the inner cavity of the feeding barrel 71, and different seasonings are separated by a partition plate 72. The seasonings are introduced into the metering mechanism 77 through the discharge port 73 for quantitative discharge. The second fixed frame 74 is used to fix the position of the feeding barrel 71. The pointer 76 on the second connecting block 75 is convenient for judging the position of the metering mechanism 77, so that the metering mechanism 77 can add different varieties of seasonings according to demand, stir and dissolve after adding the seasonings, and then take out samples from the discharge port 4 for testing, so that the produced hawthorn slices meet the production requirements.

[0048] See also Fig.13 , Fig.14 and Fig.15As shown, the regulating mechanism 77 includes a shielding ring 771, which is rotatably connected to the lower surface of the feeding barrel 71, a first limit block 772 is fixedly installed on the lower surface of the shielding ring 771, and a shielding plate 773 is slidably connected to the inner cavity of the first limit block 772, and the shielding plate 773 is slidably connected to the bottom end of the feeding barrel 71, one end of the shielding plate 773 is fixedly connected to the first discharge barrel 774, and the bottom end of the first discharge barrel 774 is slidably connected to the second discharge barrel 775, and a hand lever 776 is fixedly installed on the end of the shielding plate 773 away from the first discharge barrel 774, and a regulating frame 777 is provided at the bottom end of the second discharge barrel 775, a second limit block 778 is fixedly installed on the outer surface of the second discharge barrel 775, and the inner cavity of the regulating frame 777 is slidably connected to The second adjusting rod 779 and the lower end of the adjusting frame 777 are sleeved with a hose 7710, and a feeding hole 7711 is provided at the bottom end of the adjusting frame 777. A second connecting frame 7712 is fixedly installed on the outer surface of the adjusting frame 777, and a second plug rod 7713 is slidably connected to the inner cavity of the second connecting frame 7712. A sixth spring 7714 is sleeved on the outer surface of the second plug rod 7713, and a second fixing ring 7715 is fixedly installed on the outer surface of the second plug rod 7713. A second plug hole 7716 is provided on the outer surface of the second adjusting rod 779, and the baffle plate 773 is flush with the top of the baffle ring 771, and the baffle plate 773 is in contact with the bottom wall of the feeding barrel 71. The second limit block 778 is slidably connected to the adjusting frame 777. The middle part is rotatably connected, the hose 7710 is located below the discharge hole 7711, the hose 7710 passes through the top cover 3 and is connected to the inner cavity of the dissolving cylinder 1, and is rotatably connected to the top cover 3, so that the hose 7710 can move and rotate when the shielding ring 771 rotates, the sixth spring 7714 is located between the second connecting frame 7712 and the second fixing ring 7715, the second plug rod 7713 and the second plug hole 7716 are plugged in, and there is a gap between the bottom end of the adjusting frame 777 and the upper surface of the top cover 3. When the pointer 76 points to the middle part of the shielding plate 773, the shielding plate 773 is moved, and the first discharge barrel 774 passes directly below the discharge port 73. By rotating the shielding ring 771, the first discharge barrel 774 can be rotated to the bottom of different seasonings as needed. When the pointer 76 on the corresponding second connecting block 75 points to the baffle plate 773, quantitative material can be discharged through the first discharge barrel 774 and the second discharge barrel 775. At this time, the hand lever 776 is pulled to drive the baffle plate 773 to slide in the inner cavity of the first limit block 772. When the first discharge barrel 774 and the first limit block 772 are in contact, the first discharge barrel 774 and the discharge port 73 are connected, and the seasoning corresponding to the inner cavity of the feeding barrel 71 enters the inner cavity of the first discharge barrel 774 and the second discharge barrel 775. At this time, the capacity of the inner cavity of the first discharge barrel 774 and the second discharge barrel 775 is fixed. When the inner cavity of the first discharge barrel 774 and the second discharge barrel 775 is full of seasoning, the hand lever 776 is moved again to make the second discharge barrel 775 move toward the discharge hole 7711.When the second discharge barrel 775 contacts one side of the metering frame 777, the seasoning in the inner cavity of the second discharge barrel 775 can enter the inner cavity of the hose 7710 from the discharge hole 7711, and finally enter the inner cavity of the dissolving barrel 1 from the hose 7710 to be mixed and stirred with the hawthorn pulp. During the rotation of the shielding ring 771, the other three discharge ports 73 can be shielded to prevent leakage. When feeding another discharge port 73 that is not shielded by the shielding ring 771, the first discharge barrel 774 is connected to the discharge port 73 during the feeding process, and quantitative feeding is performed. When the seasoning is added, the shielding plate 773 moves to block the feed opening 73 again, so that all the feed openings 73 are blocked. During the rotation of the shielding ring 771, the shielding plate 773 and the shielding ring 771 are kept to block the feed opening 73 as a whole. When the shielding plate 773 reaches the position corresponding to the second connecting block 75, the hand lever 776 is moved to add seasoning. At the same time, the amount of quantitative seasoning added can be adjusted according to actual needs. The second plug rod 7713 is disengaged from the second plug hole 7716 by pulling the second plug rod 7713 The second adjusting rod 779 is moved to the position of the inner cavity of the adjusting frame 777, so that the distance between the bottom end of the adjusting frame 777 and the bottom end of the feeding barrel 71 changes. The movement of the adjusting frame 777 drives the second limit block 778 to move. The movement of the second limit block 778 drives the second discharge barrel 775 to change the position of the outer surface of the first discharge barrel 774. At this time, the capacity of the inner cavity of the first discharge barrel 774 and the second discharge barrel 775 changes, that is, the capacity of quantitative feeding changes. When it reaches the appropriate position, release the second insertion rod 779. 713, at this time, the elastic force of the sixth spring 7714 drives the second fixing ring 7715 to move toward the second plug hole 7716, so that the second plug rod 7713 is again plugged into the second plug hole 7716, so that the second adjustment rod 779 and the adjustment rack 777 are kept fixed, thereby realizing the change of the inner cavity capacity of the first discharge barrel 774 and the second discharge barrel 775, so as to adjust the amount of seasoning according to demand, and dissolve and mix the seasoning and hawthorn raw materials through the dissolving component 5, so that the prepared hawthorn tastes better.

[0049] In summary, the dissolving cylinder 1 is used to hold the dissolved raw materials, the supporting legs 2 are used to support the dissolving cylinder 1, the top cover 3 is used to close the dissolving cylinder 1, the discharging port 4 is used to detect the discharging, and the dissolving cylinder 1 and the top cover 3 can be separated for large-scale discharging, the dissolving component 5 is used to stir and dissolve the raw materials and mix the seasonings in the process of hawthorn production, the feeding component 7 is used to quantitatively increase the seasoning, the feeding port 8 is used to add materials so that the raw materials are dispersed and fed from the feeding component 6, the sliding operation plate 9 is used to observe the internal situation and operate the inside of the dissolving cylinder 1, the bidirectional stirring mechanism 52 drives the first stirring frame 53 and the second stirring frame 54 to rotate forward and reversely through the operation of the motor 51, so as to accelerate the dissolution of the hawthorn raw material, the first threaded rod 55 is used to cooperate with the shaking mechanism 56 to prevent sedimentation at the bottom so that the hawthorn is fully dissolved, and the rotation of the first rotating rod 523 drives the first bulk material sleeve 61 rotates as a whole, so that the hawthorn raw materials entering the inner cavity of the expansion sleeve 63 from the feed port 8 can be dispersed and fed to prevent the raw materials from stacking and being inconvenient to dissolve. The adjustment component 65 is used to control the gap between the first bulk sleeve 61 and the second bulk sleeve 62, which is convenient for adjustment according to the size of the raw materials. The pressure rod 69 is used to squeeze the shaking mechanism 67 to make the elastic mechanism 68 shake and drive the first bulk sleeve 61 and the second bulk sleeve 62 to shake to prevent the materials from getting stuck. The seasonings needed for dissolving and mixing the hawthorn slices are placed in the inner cavity of the feeding barrel 71, and different seasonings are separated by the partition plate 72. The seasonings are introduced into the adjusting mechanism 77 through the discharge port 73 for quantitative discharge. The second fixing frame 74 is used to fix the position of the feeding barrel 71. The pointer 76 on the second connecting block 75 is convenient for judging the position of the adjusting mechanism 77, so that the adjusting mechanism 77 can add different varieties of seasonings according to needs.

[0050] Obviously, those skilled in the art can make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if these modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalents, the present invention is also intended to include these modifications and variations.

[0051] What has been described above are only preferred specific implementation methods of the embodiments of the present application, but the protection scope of the present application is not limited thereto. Any technician familiar with the technical field can make equivalent substitutions or changes based on the technical solution and concept of the present application within the technical scope disclosed in the present application, which should be covered by the protection scope of the present application.

Claims

1. A dissolving mechanism for detecting hawthorn slices, comprising a dissolving cylinder (1), characterized in that: The lower end of the dissolving cylinder (1) is fixedly mounted with a supporting leg (2); the top end of the dissolving cylinder (1) is provided with a top cover (3); the outer surface of the lower end of the dissolving cylinder (1) is provided with a discharge port (4); the inner cavity of the dissolving cylinder (1) is provided with a dissolving component (5); the lower surface of the top cover (3) is provided with a feeding component (6); the upper surface of the top cover (3) is provided with a feeding component (7); the upper surface of the top cover (3) is provided with a feeding port (8); the upper surface of the top cover (3) is slidably connected with an operating panel (9); the outer surface of the top cover (3) is provided with an operating port, and the operating panel (9) is located on the upper surface of the operating port; The feeding assembly (6) comprises a first bulk material sleeve (61), the inner cavity of the first bulk material sleeve (61) is provided with a second bulk material sleeve (62), the top end of the first bulk material sleeve (61) is fixedly connected with an expansion sleeve (63), the bottom ends of the first bulk material sleeve (61) and the second bulk material sleeve (62) are both fixedly mounted with connecting rings (64), the outer surface of the connecting ring (64) is provided with an adjusting assembly (65), and the two connecting rings (64) are connected via the adjusting assembly (65), a belt (66) is provided below the top cover (3), a shaking mechanism (67) is provided on one side of the top end of the expansion sleeve (63), an elastic mechanism (68) is fixedly mounted on the top end of the second bulk material sleeve (62), a pressure rod (69) is fixedly mounted on the lower surface of the top cover (3), and the elastic mechanism (68) and the top cover (3) are rotatably connected; The shaking mechanism (67) includes a first connecting frame (671), the inner cavity of the first connecting frame (671) is slidably connected to a first plug rod (672), the outer surface of the first plug rod (672) is fixedly mounted with a first fixing ring (673), the outer surface of the first plug rod (672) is sleeved with a fourth spring (674), the fourth spring (674) is located between the first fixing ring (673) and the first connecting frame (671), the inner cavity of the first connecting frame (671) is slidably connected to a first adjusting rod (675), The outer surface of the first adjusting rod (675) is provided with a first plug hole (676), the first plug hole (676) and the first plug rod (672) are plugged together, a second protrusion (677) is fixedly mounted on the top of the first adjusting rod (675), both ends of the second protrusion (677) are tilted downward, the second protrusion (677) and the pressure rod (69) are at the same distance from the elastic mechanism (68), the first connecting frame (671) and the expansion sleeve (63) are fixedly connected, and the first bulk material sleeve (61) is located directly below the top cover (3); The elastic mechanism (68) comprises a transmission rod (681), the inner cavity of the transmission rod (681) is slidably connected to a second buffer rod (682), a stopper (683) is fixedly installed on the top of the second buffer rod (682), the stopper (683) and the transmission rod (681) are slidably connected, a fifth spring (684) is sleeved on the outer surface of the second buffer rod (682), the fifth spring (684) is located between the stopper (683) and the inner wall of the transmission rod (681), a connector (685) is fixedly installed on the bottom end of the second buffer rod (682), the connector (685) is fixedly connected to the top of the second bulk material sleeve (62), the transmission rod (681) and the belt (66) are sleeved, there is a gap between the first bulk material sleeve (61) and the second bulk material sleeve (62), and the transmission rod (681) and the top cover (3) are rotatably connected; The dissolving component (5) comprises a motor (51), the motor (51) and the top cover (3) are fixedly connected, a bidirectional stirring mechanism (52) is arranged on the lower surface of the top cover (3), a first stirring frame (53) is sleeved on the outer surface of the bidirectional stirring mechanism (52), a second stirring frame (54) is sleeved on the bottom end of the bidirectional stirring mechanism (52), first threaded rods (55) are threadedly connected on both sides of the first stirring frame (53), and a material shaking mechanism (56) is arranged on the bottom wall of the dissolving cylinder (1); The material shaking mechanism (56) comprises a sliding plate (561), the sliding plate (561) is slidably connected to the inner wall of the dissolving cylinder (1), and the sliding plate (561) and the inner wall of the dissolving cylinder (1) are in close contact, a first protrusion (562) is fixedly installed on the upper surface of the sliding plate (561), the two ends of the first protrusion (562) are inclined, and the two sides are flush with the sliding plate (561), when the first stirring frame (53) rotates, the first threaded rod (55) passes through the first protrusion (562), a buffer plate (563) is fixedly installed on the inner wall of the bottom end of the dissolving cylinder (1), and a slide rail (564) is fixedly installed in the middle part of the buffer plate (563), and the slide rail (56 4), the inner walls at both ends of the slide rail (564) are fixedly connected to first springs (565), the inner cavity of the slide rail (564) is slidably connected to a slider (566), the first spring (565) is located between the slide rail (564) and the slider (566), the side of the slider (566) away from the first spring (565) is rotatably connected to a connecting strip (567), the middle part of the buffer plate (563) is slidably connected to a buffer frame (568), the two ends of the buffer frame (568) are rotatably connected to the connecting strip (567), the top of the buffer frame (568) is fixedly installed with a support plate (569), and the support plate (569) and the slide plate (561) are fixedly connected.

2. A dissolving mechanism for detecting hawthorn slices as claimed in claim 1, characterized in that: The adjustment assembly (65) comprises a first connecting block (651), the first connecting block (651) and a connecting ring (64) where the second bulk material sleeve (62) is located are fixedly connected, the inner cavity of the first connecting block (651) is rotatably connected to a second threaded rod (652), four corners of the first connecting block (651) are fixedly mounted with storage rods (653), the upper surface of the first connecting block (651) is slidably connected to a moving block (654), the outer surface of the moving block (654) is fixedly mounted with a driving rod (655), the moving block (654) and the second threaded rod (652) are threadedly connected, the inner cavity of the storage rod (653) is slidably connected to a lifting rod (656), and the upper surface of the lifting rod (656) is fixedly mounted with a lifting rod (656). A lowering block (657), a driving block (658) is fixedly mounted on the lower surface of the lifting block (657), a driving groove (659) is formed on the outer surface of the driving block (658), the driving groove (659) and the driving rod (655) are slidably connected, the lifting block (657) and the connecting ring (64) where the first bulk material sleeve (61) is located are fixedly connected, a first buffer rod (6510) is fixedly mounted on the upper surface of the lifting block (657), a second spring (6511) is sleeved on the outer surface of the first buffer rod (6510), the first buffer rod (6510) and the connecting ring (64) where the first bulk material sleeve (61) is located are slidably connected, and the second spring (6511) is located between the connecting ring (64) and the first buffer rod (6510).

3. A dissolving mechanism for detecting hawthorn slices as claimed in claim 1, characterized in that: The bidirectional stirring mechanism (52) comprises a first fixed frame (521), the first fixed frame (521) and the lower surface of the top cover (3) are fixedly connected, the outer surface of the first fixed frame (521) is rotatably connected to a first bevel gear (522), the inner cavity of the first fixed frame (521) is rotatably connected to a first rotating rod (523), the bottom end of the first rotating rod (523) is fixedly mounted with a second bevel gear (524), the bottom end of the second bevel gear (524) is fixedly mounted with a connecting rod (525), the inner cavity at the bottom end of the first fixed frame (521) is rotatably connected to a second rotating rod (526), ​​the top end of the second rotating rod (526) is fixedly mounted with a third bevel gear (527), and the second bevel gear (527) is fixedly mounted with a third bevel gear (527). 24) and the third bevel gear (527) are both meshed with the first bevel gear (522), the connecting rod (525) passes through the third bevel gear (527) and the second rotating rod (526), ​​the connecting rod (525) is rotatably connected to the second rotating rod (526) and the third bevel gear (527), and the connecting rod (525) and the second stirring frame (54) are fixedly sleeved, the first rotating rod (523) and the output end of the motor (51) are sleeved, the first rotating rod (523) and the top cover (3) are rotatably connected, the first rotating rod (523) and the belt (66) are sleeved, the second rotating rod (526) and the first stirring frame (53) are fixedly connected, and both ends of the first stirring frame (53) are in contact with the inner wall of the dissolving cylinder (1).

4. A dissolving mechanism for detecting hawthorn slices as claimed in claim 1, characterized in that: The feeding assembly (7) comprises a feeding barrel (71), the inner wall of which is fixedly mounted a partition plate (72), the partition plate (72) dividing the inner cavity of the feeding barrel (71) into four equal spaces, the bottom wall of the feeding barrel (71) is provided with a feeding port (73), the feeding port (73) and the partition plate (72) are arranged in a staggered manner, the outer surface of the feeding barrel (71) is fixedly mounted a second fixing frame (74), the second fixing frame (74) and the top cover (3) are fixedly connected, the outer surface of the feeding barrel (71) is fixedly mounted a second connecting block (75), there are four second connecting blocks (75), the second connecting blocks (75) are located in the middle of the intersection of the partition plates (72), the outer surface of the second connecting block (75) is fixedly mounted a pointer (76), and the bottom end of the feeding barrel (71) is provided with a quantity adjustment mechanism (77).

5. A dissolving mechanism for detecting hawthorn slices as claimed in claim 4, characterized in that: The amount adjustment mechanism (77) comprises a shielding ring (771), the shielding ring (771) is rotatably connected to the lower surface of the feeding barrel (71), a first limit block (772) is fixedly installed on the lower surface of the shielding ring (771), the inner cavity of the first limit block (772) is slidably connected to a shielding plate (773), the shielding plate (773) is slidably connected to the bottom end of the feeding barrel (71), one end of the shielding plate (773) is fixedly connected to a first lower barrel (774), the bottom end of the first lower barrel (774) is slidably connected to a second lower barrel (775), one end of the shielding plate (773) away from the first lower barrel (774) is fixedly installed with a hand lever (776), the bottom end of the second lower barrel (775) is provided with an amount adjustment frame (777), and the second lower barrel (775) is slidably connected to the first lower barrel (774). A second limit block (778) is fixedly mounted on the outer surface of the barrel (775); a second adjusting rod (779) is slidably connected to the inner cavity of the adjusting frame (777); a hose (7710) is sleeved on the lower end of the adjusting frame (777); a material discharge hole (7711) is provided at the bottom end of the adjusting frame (777); a second connecting frame (7712) is fixedly mounted on the outer surface of the adjusting frame (777); a second plug rod (7713) is slidably connected to the inner cavity of the second connecting frame (7712); a sixth spring (7714) is sleeved on the outer surface of the second plug rod (7713); a second fixing ring (7715) is fixedly mounted on the outer surface of the second plug rod (7713); and a second plug hole (7716) is provided on the outer surface of the second adjusting rod (779).

6. A dissolving mechanism for detecting hawthorn slices as claimed in claim 5, characterized in that: The shielding plate (773) and the shielding ring (771) are flush with each other at the top, the shielding plate (773) is in contact with the bottom wall of the feeding cylinder (71), the second limit block (778) is slidably connected to the adjusting frame (777), the second adjusting rod (779) is rotatably connected to the middle part of the feeding cylinder (71), the hose (7710) is located below the discharge hole (7711), the hose (7710) passes through the top cover (3) and is connected to the inner cavity of the dissolving cylinder (1), and is in contact with the The top cover (3) is rotatably connected, the sixth spring (7714) is located between the second connecting frame (7712) and the second fixing ring (7715), the second insertion rod (7713) and the second insertion hole (7716) are plugged together, there is a gap between the bottom end of the adjusting frame (777) and the upper surface of the top cover (3), the baffle plate (773) is moved when the pointer (76) points to the middle part of the baffle plate (773), and the first discharge barrel (774) passes directly below the discharge port (73).

Images