Large tremella aurantialba thick soup processing equipment and processing method thereof

Abstract

The invention relates to the technical field related to conveying machinery, discloses large tremella aurantialba thick soup processing equipment and a processing method thereof, and aims to solve the problem that cleaning is difficult due to the fact that soup is scattered on a conveying belt in the conveying process. The pure water medium is continuously injected into the conveying frame through the water pump assembly, the drainage base is arranged on the side, relatively away from the water pump assembly, of the conveying frame, and therefore it can be guaranteed that the clean water medium is continuously conveyed in the conveying frame in a one-way mode, and when soup bowls are conveyed through the conveying belt, the soup bowls are half immersed into the water medium. And if the soup bowls scatter in the conveying process, the soup is discharged outwards along with water flow, so that the soup is prevented from polluting the whole production line, and finally, the soaking type conveying effect is achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of conveying machinery, and particularly to a large tremella aurantialba soup processing device and its processing method. Background Art

[0002] Large tremella aurantialba soup, as a highly characteristic nourishing dessert, occupies a unique position in the food industry.

[0003] However, in the current production process of large tremella aurantialba soup, especially in the filling and packaging links, there are some problems that need to be solved urgently. At present, the production line mainly relies on belt conveyors to complete the transportation of soup bowls. Belt conveyors have been widely used in the food processing industry due to their simple structure and strong conveying capacity. However, in the actual production operation process, since the soup bowls are in an open-upward state on the conveyor belt, when workers add an appropriate amount of water and various materials for making tremella aurantialba soup into the soup bowls, due to the dynamic state of the liquid and ingredients in the soup bowls, it is very easy to occur the situation of overfilling. Especially when adding materials, if the operation is slightly careless, or the fluidity of the materials themselves is relatively strong, it is very easy to exceed the capacity of the soup bowls, resulting in some ingredients and soup spilling out of the bowls. In addition, the belt conveyor will inevitably generate a certain vibration during operation. This vibration is like an unstable environment for the ingredients in the soup bowls, causing the ingredients in the bowls to shake with the vibration, and then resulting in the ingredients spilling outwards.

[0004] These spilled ingredients and soup will not only greatly reduce the external cleanliness of the soup bowls, making the originally clean and tidy soup bowls become dirty and stained, affecting the appearance quality of the products and leaving a bad impression on consumers. Moreover, the spilled materials will gradually spread to the entire production line along with the continuous transportation of the belt conveyor. In every corner of the production line, it is possible to see the flowing materials, making the originally clean and orderly production environment become messy. As time goes by, especially in the case of long-term continuous work, these soups flowing on the production line will deteriorate and emit a stinking smell due to the growth of bacteria. Once the soup deteriorates and emits a stinking smell, it will not only emit an unpleasant smell, affecting the working environment of the entire production workshop, but also may cause secondary pollution to other uncontaminated ingredients and products, thus seriously affecting the quality and safety of the products.

[0005] If the machine is stopped for cleaning at this time, although it can solve the hygiene problems on the production line, it will cause the entire production line to stagnate. Each link on the production line is closely connected. Once a certain link stops running, it will affect the smooth progress of the entire production process. Stopping for cleaning not only requires a large amount of time and labor costs, but also disrupts the original orderly production plan, resulting in a delay in the production progress, thus greatly reducing the production efficiency and bringing unnecessary economic losses to the enterprise. Summary of the Invention

[0006] The present invention provides a processing device and a processing method for large-flower Tremella aurantialba soup, which has the characteristic of submerged transportation and can effectively solve the problem mentioned in the above background technology that the soup spills on the conveyor belt during transportation, resulting in difficult cleaning.

[0007] To achieve the above object, the present invention adopts the following technical solutions: A processing device for large-flower Tremella aurantialba soup, comprising: a conveying frame, inside which there is a conveyor belt for conveying soup bowls, and a conveying motor uses rollers to provide support and power for the conveyor belt; a feeding component, fixed on the conveying frame, for inputting raw materials into the soup bowls; a capping component, located in the subsequent process of the feeding component, for sealing the openings of the soup bowls; a finished product frame, fixed outside the conveying frame and located in the subsequent process of the capping component, cooperating with a stop rod fixed inside the conveying frame, so that the soup bowls can be guided by the stop rod and conveyed to the finished product frame; a water pump component, fixed on the side of the conveying frame and located between the finished product frame and the feeding component process; a drainage seat, arranged at the bottom of the conveying frame and located between the finished product frame and the capping component process; during the process of the soup bowl from the feeding component to the capping component, the water flow direction in the conveying frame is the same as the direction of the conveyor belt transporting the soup bowl. When the soup in the soup bowl leaks, it is transported to the drainage seat by the water flow and discharged outward; during the process of the soup bowl from the capping component to the finished product frame process, the water flow direction in the conveying frame is opposite to the direction of the conveyor belt transporting the soup bowl, realizing the flushing of the soup bowl by the water medium.

[0008] Further, the conveying frame is circular.

[0009] Further, the conveyor belt surface is equidistantly provided with mounting grooves for restricting the bottom of the soup bowl.

[0010] Further, an overflow component is installed outside the conveying frame on one side of the drainage seat.

[0011] Further, an adjustment cylinder is installed at the bottom of the conveyor belt below the mounting groove, and a power fan blade is movably installed at the bottom of the adjustment cylinder; a axial flow fan blade coaxial with the power fan blade is fixedly installed at the top inside the adjustment cylinder, and a lead screw is movably installed at the top of the rotating shaft of the axial flow fan blade through a torque limiter; a communication groove is opened inside the adjustment cylinder above the axial flow fan blade, and an air delivery pipe connected to the chamber where the axial flow fan blade is located is fixedly installed at the bottom outside the adjustment cylinder; a guide frame is threadedly connected to the outside of the lead screw, and a sealing seat is fixedly installed on the guide frame.

[0012] Further, the bottom end of the air delivery pipe is located below the axial flow fan blade, and the top end passes through the conveyor belt and is located above the conveying frame.

[0013] Further, a liquid discharge groove is opened at the bottom of the adjustment cylinder below the sealing seat.

[0014] Further, jet nozzles are circumferentially and equiangularly arranged on the surface of the conveyor belt and located outside the mounting grooves.

[0015] The present invention has the following beneficial effects:

[0016] A processing device and a processing method for Tremella aurantialba soup provided by the present invention realize the filling and encapsulation operations of Tremella aurantialba soup by configuring an annular conveyor belt. In this process, a pure water medium is continuously injected into the conveyor frame by means of a water pump assembly. At the same time, a drainage seat is arranged on one side of the conveyor frame far from the water pump assembly to ensure that a clean water medium forms a one-way continuous conveying trend in the conveyor frame. When the conveyor belt conveys the soup bowls filled with Tremella aurantialba soup, the soup bowls will be semi-immersed in the water medium. If spills occur during the conveyance of the soup bowls, the spilled soup will be discharged along the water flow direction, effectively avoiding the pollution of the entire production line by the soup, and finally achieving the expected effect of immersion-type conveyance. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] The drawings forming a part of the specification depict the embodiments disclosed by the present invention and, together with the specification, are used to explain the principles disclosed by the present invention.

[0018] Referring to the drawings, the present invention can be more clearly understood from the following detailed description, where:

[0019] Figure 1 is a schematic perspective view of the right side of the whole of the present invention;

[0020] Figure 2 is a schematic perspective view of the left side of the whole of the present invention;

[0021] Figure 3 is a schematic top view of the whole of the present invention;

[0022] Figure 4 is a schematic perspective view of the interior of the whole of the present invention;

[0023] Figure 5 is a schematic middle-plane sectional view of the present invention;

[0024] Figure 6 is of the present invention Figure 5 an enlarged schematic view of the structure at E;

[0025] Figure 7 is a schematic perspective view of the screw rod structure of the present invention;

[0026] Figure 8 is a schematic perspective view of the interior of the adjusting cylinder of the present invention.

[0027] In the figure: 1, conveying rack; 2, conveyor belt; 200, installation groove; 201, air jet; 3, conveying motor; 4, water pump assembly; 5, feeding assembly; 6, capping assembly; 7, finished product rack; 8, retaining bar; 9, overflow assembly; 10, soup bowl; 11, drain seat; 12, adjusting cylinder; 120, liquid discharge groove; 121, communicating groove; 13, power fan blade; 14, axial flow fan blade; 15, torque limiter; 16, lead screw; 17, gas pipeline; 18, plugging seat. Detailed implementation manners

[0028] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0029] Embodiment 1. Currently, the process for big tremella aurantialba soup is as follows:

[0030] 1. Material requisition: First, confirm the total number of bowls in the order, and then prepare all the required materials according to the ingredient list (order number * number of bowls = required material requisition number). For example, for tremella filaments, the total order is 2000 bowls * 0.3 g / bowl = 600 g.

[0031] 2. Calculate the number of pots: Then convert it to the number of pots as the unit "1" for washing materials and adjusting water. For example: total order 2000 bowls ÷ 500 bowls / pot = 4 pots.

[0032] 3. Wash dry materials: Then convert the amount of each dry material to the amount for 500 bowls per pot for weighing and washing. For example: tremella filaments for 500 bowls * 0.35 g = 150 g.

[0033] 4. Pretreatment process of tremella filaments: Soak the tremella in clean water for 5 minutes, filter and dry it for later use. After calculating the weight per bowl per pot, send it to the feeding assembly 5 for feeding. After feeding, use the capping assembly 6 to seal it.

[0034] 5. Pretreatment process of dried bird's nest: First, spray and humidify the dried bird's nest with pure water until the bird's nest becomes soft; then boil the water to 90 - 95 °C, cover it and steam for 18 minutes; cool the steamed bird's nest with ice water and soak it for 25 - 30 minutes.

[0035] 6. Filter and dry: Wash the dry materials with clean water, pour them into a filter basket, filter and dry them for later use.

[0036] 7. Multiplication factor and feeding per bowl: Wet and warm materials / dry materials = multiplication factor, and then dry materials * multiplication factor = feeding weight per bowl.

[0037] To ensure the automation of the above manufacturing, refer to Figures 1-3It can be seen that the conveying rack 1 in this application is mainly arranged in the shape of an annular playground. Correspondingly, the conveyor belt 2 inside the adjustment cylinder 12 is also annular. Moreover, the surface of the conveyor belt 2 is provided with hollow holes to ensure that the subsequent water flow can pass through the surface of the conveyor belt 2. A plurality of rollers are installed inside the conveying rack 1, located at the upper and lower parts of the conveyor belt 2. The rollers located below the conveyor belt 2 can provide support for the conveyor belt 2, and the rollers located above it can prevent the conveyor belt 2 from moving upward. The conveyor belt 2 can be effectively clamped and limited by the rollers arranged up and down. Moreover, a conveying motor 3 located outside the conveying rack 1 is installed on the rollers. The conveying motor 3 provides rotational kinetic energy for the rollers. Finally, the rollers drive the conveyor belt 2 to move, realizing the rotational movement of the conveyor belt 2 inside the conveying rack 1. In the actual arrangement process, the number of conveying motors 3 is not limited to one, and this number can be adjusted as needed according to the scale of the production line.

[0038] A feeding component 5 is fixedly installed on the conveying rack 1 by bolts. The feeding component 5 is provided with a plurality of storage cavities, a weighing component, an electromagnetic valve, etc. The raw materials for preparing the big tremella aurantialba soup are correspondingly placed into the feeding component 5, so that it can be quantitatively input into the soup bowl 10. Regarding the placement of the soup bowl 10, Figure 3 For example, the conveyor belt 2 conveys in the clockwise direction. Therefore, in front of the feeding component 5 (located Figure 3 above and near the conveying motor 3), generally a robotic arm is provided. The robotic arm is not drawn in the figure. The robotic arm can be used to place the soup bowl 10 on the conveyor belt 2. In this process, in order to ensure that the spacing between the placed soup bowls 10 is relatively fixed, Figure 6 it can be seen that mounting grooves 200 for restricting the bottom of the soup bowl 10 are equidistantly arranged on the surface of the conveyor belt 2. After the soup bowl 10 is placed on the mounting grooves 200, the position of the soup bowl 10 is restricted and it is positioned and fixed by the spacing between the mounting grooves 200, ensuring that the soup bowl 10 will not shift during the conveying process.

[0039] A capping component 6 is arranged on the conveying rack 1 and behind the feeding component 5. The capping component 6 mainly caps the open soup bowl 10. Figure 3 It can be seen from Figure 2 and Figure 3 that a finished product rack 7 is installed on the outer side of the conveying rack 1 and in the subsequent process path of the capping component 6, and a stop bar 8 located at the end of the finished product rack 7 is fixedly installed on the inner side of the conveying rack 1. When the conveyor belt 2 conveys the encapsulated soup bowl 10 to the stop bar 8, the soup bowl 10 is conveyed into the finished product rack 7 by the blocking of the stop bar 8. Generally, a conveyor belt and a drying box are arranged in the finished product rack 7, so as to ensure the output of the encapsulated product and ensure its own drying at the same time.

[0040] The advantage of the first embodiment is that in combination with Figures 1-4 As can be seen, a water pump assembly 4 is arranged on the side of the conveying rack 1 and in the area between the finished product rack 7 and the injection component 5 process. The water pump assembly 4 can continuously convey pure water into the conveying rack 1. Since the inside of the conveying rack 1 is equivalent to an annular water storage tank, with the continuous conveyance of the water pump assembly 4, the height of the pure water in the water pump assembly 4 continuously increases until the liquid level is above the conveyor belt 2.

[0041] A drain seat 11 is installed at the bottom of the conveying rack 1 and between the finished product rack 7 and the capping component 6 process. The drain seat 11 can discharge the water medium in the conveying rack 1 to the outside. By continuously feeding water with the water pump assembly 4 and continuously discharging with the drain seat 11, the water medium in the conveying rack 1 can flow continuously. In combination with Figure 3 As shown, since the conveying rack 1 is arranged in a ring shape, part of the water medium entering the conveying rack 1 flows counterclockwise towards the finished product rack 7, and part of the water medium flows clockwise towards the injection component 5. Finally, the converging water flow is discharged from the drain seat 11 to the outside. During this process, when the soup bowl 10 passes through the injection component 5 for feeding, it will move towards the capping component 6. During this process, external personnel can observe the actual situation of the materials in the soup bowl 10. If during the conveyance at this stage, the materials in the soup bowl 10 spill, the spilled soup will flow along with the water medium. Finally, the water medium reaching the drain seat 11 position is discharged to the outside, avoiding the soup staying in the conveying rack 1. Since the water medium in the conveying rack 1 flows continuously, therefore, the water medium can not only prevent the soup from spilling onto the conveyor belt 2 and causing it to deteriorate and stink, but also continuously clean the conveying rack 1 and the conveyor belt 2 due to the continuous flushing of the water flow. After the soup bowl 10 is sealed, it moves towards the finished product rack 7 according to the conveyance of the conveyor belt 2. At this time, the water flow direction is opposite to the movement direction of the soup bowl 10, so as to realize relatively clean of the outer side of the soup bowl 10 by the flushing of the water flow.

[0042] On this basis, an overflow assembly 9 is installed on the outside of the conveying rack 1 and on one side of the drain seat 11. From Figure 2 and Figure 4 As can be seen, the overflow assembly 9 includes a guiding slide and a water retaining plate. By guiding the water retaining plate with the guiding slide, the water retaining plate can only move up and down. At the same time, the top of the overflow assembly 9 can effectively limit the height of the water flow in the conveying rack 1, avoiding the liquid level height of the water flow in the conveying rack 1 being above the opening of the soup bowl 10.

[0043] The second embodiment is a further improvement based on the first embodiment. Please refer to Figures 5-8It can be seen that at the bottom of the conveyor belt 2, there is an adjustment cylinder 12 which is fixedly installed by a flange and located below the installation groove 200. And at the bottom of the adjustment cylinder 12, a power fan blade 13 is movably installed. Since a semi-circular cover is provided at the bottom of the adjustment cylinder 12 outside the power fan blade 13, this limits that half of the power fan blade 13 is located in the inner cavity of the conveyor frame 1, and the other half is located in the semi-circular cover of the adjustment cylinder 12. The advantage of this design is that combined with Figure 6 It can be seen that when the water medium flows from the inside to the outside, since the semi-circular cover partially blocks the power fan blade 13, the power fan blade 13 located in the inner cavity of the conveyor frame 1 will be driven to rotate due to the water flow. At the top of the inner side of the adjustment cylinder 12, an axial flow fan blade 14 coaxial with the power fan blade 13 is fixedly installed. When the power fan blade 13 rotates, the axial flow fan blade 14 can rotate synchronously, so as to realize the flow of the medium in the chamber where the axial flow fan blade 14 is located. It should be noted that when the rotation direction of the power fan blade 13 changes, the flow of the medium in the outer chamber of the axial flow fan blade 14 also changes accordingly.

[0044] A communication groove 121 is opened on the inner side of the adjustment cylinder 12 above the axial flow fan blade 14, so as to realize the connection between the top of the chamber where the axial flow fan blade 14 is located and the inner cavity of the adjustment cylinder 12. At the bottom of the outer side of the adjustment cylinder 12, an air delivery pipe 17 connected to the chamber where the axial flow fan blade 14 is located is fixedly installed. And the bottom end of the air delivery pipe 17 is located below the axial flow fan blade 14, and the top end passes through the conveyor belt 2 and is located above the conveyor frame 1. By using that both the communication groove 121 and the air delivery pipe 17 are connected to the chamber where the axial flow fan blade 14 is located, a flow path for the medium in the chamber where the axial flow fan blade 14 is located is provided.

[0045] At the top of the rotating shaft of the axial flow fan blade 14, there is a lead screw 16 movably installed through a torque limiter 15. Specifically, refer to Figure 7 and Figure 8 It can be seen that the lead screw 16 is movably installed inside the adjustment cylinder 12 and located in the inner cavity of the adjustment cylinder 12. And arc grooves are arranged at equal angles in the circumferential direction at the bottom of the lead screw 16. Correspondingly, the torque limiter 15 includes a spring and a push rod. The push rod is movably installed at the top of the rotating shaft of the axial flow fan blade 14. Pushed by the spring, the push rod abuts against the arc grooves. When the rotation resistance of the lead screw 16 is small, the rotating shaft of the axial flow fan blade 14 can drive the lead screw 16 to rotate synchronously through the torque limiter 15; similarly, when its rotation resistance is large, the push rod in the torque limiter 15 slides along the arc grooves continuously, so as to realize that the axial flow fan blade 14 does not drive the lead screw 16 to rotate.

[0046] Refer to Figure 6 and Figure 8It can be clearly seen that a guide frame is threadedly connected to the outer side of the lead screw 16, and the guide frame is slidably connected to the inner side of the adjustment cylinder 12. The inner side of the adjustment cylinder 12 is used to limit the guide frame to only move vertically up and down along the lead screw 16. A plugging seat 18 is fixedly installed on the guide frame, and the plugging seat 18 is coaxially arranged with the installation groove 200. Moreover, a liquid discharge groove 120 equal in size and coaxial with the bottom end of the plugging seat 18 is opened at the bottom of the adjustment cylinder 12. After the lead screw 16 drives the plugging seat 18 to move upward, the top end of the plugging seat 18 can plug the installation groove 200 and make the top end of the plugging seat 18 horizontally aligned with the surface of the conveyor belt 2. Similarly, after the lead screw 16 drives the plugging seat 18 to move downward, the bottom end of the plugging seat 18 can plug the liquid discharge groove 120.

[0047] In the actual application of the second embodiment:

[0048] The placement, filling, and sealing of the soup bowl 10 are the same as those described in the first embodiment. At the same time, from Figure 3 It can be seen that after the soup bowl 10 located in front of the feeding assembly 5 is placed on the installation groove 200, at this time, the running direction of the conveyor belt 2 is the same as the flowing direction of the water medium. At this time, the water medium pushes the power fan blade 13 to rotate, and the power fan blade 13 drives the axial flow fan blade 14 to rotate synchronously. The medium in the inner cavity of the adjustment cylinder 12 enters the chamber where the axial flow fan blade 14 is located through the communication groove 121, and the axial flow fan blade 14 continuously rotates and discharges the medium outward from the air pipe 17. As Figure 6 shown, the axial flow fan blade 14 drives the lead screw 16 to rotate through the torque limiter 15, and the lead screw 16 moves the plugging seat 18 downward to plug the liquid discharge groove 120. When the soup bowl 10 is placed on the installation groove 200, it causes the water medium in the inner cavity of the conveying frame 1 to not be quickly input into the inner cavity of the adjustment cylinder 12. As the axial flow fan blade 14 continuously sucks the inner cavity of the adjustment cylinder 12 through the communication groove 121, the pressure in the inner cavity of the adjustment cylinder 12 is relatively lower than the outside, so that the soup bowl 10 has a tendency to be adsorbed in the installation groove 200. In order to avoid the pressure in the inner cavity of the adjustment cylinder 12 from being too low, air jet ports 201 are arranged at equal angles in the circumferential direction on the surface of the conveyor belt 2 and outside the installation groove 200. The air jet ports 201 can be used to slowly input the medium in the inner cavity of the conveying frame 1 into the inner cavity of the adjustment cylinder 12, so as to avoid the load pressure of the axial flow fan blade 14 from being too large due to the inner cavity of the adjustment cylinder 12 being too sealed, resulting in its inability to rotate normally.

[0049] After the soup bowl 10 is filled and sealed, the soup bowl 10 will be conveyed towards the drainage seat 11. When the soup bowl 10 passes over the drainage seat 11, at this time, the running direction of the conveyor belt 2 is opposite to the flowing direction of the water medium. Therefore, the water flow will drive the power fan blade 13 to rotate in the reverse direction. During this process, the axial flow fan blade 14 and the lead screw 16 can rotate in the same reverse direction. When the lead screw 16 rotates in the reverse direction, it will cause the plugging seat 18 to move upward and make the soup bowl 10 disengage from the installation groove 200. This method can ensure that the subsequent soup bowls 10 can be conveyed into the finished product rack 7. Moreover, if the soup bowl 10 leaks after filling, it will cause the outer sides of the subsequent soup bowls 10 on the path to be affected by the soup. To prevent such problems, after the soup bowl 10 is sealed, the reverse-flowing water medium can wash the sealed soup bowl 10, thereby avoiding the appearance of soup on the outer side. Furthermore, when the axial flow fan blade 14 rotates in the reverse direction, it will cause the air pipe 17 to suck in external air and enter the inner cavity of the adjustment cylinder 12 through the communication groove 121. At this time, the plugging seat 18 plugs the installation groove 200. Therefore, the air flow can only be output from the air jet port 201. The air flow output from the air jet port 201 acts on the outer side of the soup bowl 10, which will cause the water medium on the outer side of the soup bowl 10 to have a turbulent flow, further enhancing the cleaning intensity of the outer side of the soup bowl 10.

[0050] Meanwhile, the air flow conveyed by the axial flow fan blade 14 into the air jet port 201 cannot be quickly discharged from the air jet port 201. This will cause the air in the inner cavity of the adjustment cylinder 12 to increase, and make the water medium retained in the adjustment cylinder 12 tend to be discharged from the drain tank 120, ensuring that the inner cavity of the adjustment cylinder 12 does not carry contaminated water medium.

Claims

1. A processing device for Tremella aurantialba big ear soup, characterized in that, Including: A conveying rack (1), with a conveyor belt (2) for conveying the soup bowls (10) arranged inside. A conveying motor (3) uses rollers to provide support and power for the conveyor belt (2). A feeding component (5), fixed on the conveying rack (1), for feeding raw materials into the soup bowls (10). A capping component (6), located in the subsequent process of the feeding component (5), for sealing the openings of the soup bowls (10). A finished product rack (7), fixed on the outside of the conveying rack (1) and located in the subsequent process of the capping component (6). Cooperating with a stop bar (8) fixed inside the conveying rack (1), the soup bowls (10) can be guided by the stop bar (8) and conveyed to the finished product rack (7). A water pump component (4), fixed on the side of the conveying rack (1) and located between the processes of the finished product rack (7) and the feeding component (5). A drainage seat (11), arranged at the bottom of the conveying rack (1) and located between the processes of the finished product rack (7) and the capping component (6). During the process of the soup bowl (10) from the feeding component (5) to the capping component (6), the water flow direction in the conveying rack (1) is the same as the transportation direction of the conveyor belt (2) for the soup bowl (10). When the soup in the soup bowl (10) leaks, it is conveyed to the drainage seat (11) by the water flow and discharged outside. During the process of the soup bowl (10) from the capping component (6) to the finished product rack (7), the water flow direction in the conveying rack (1) is opposite to the transportation direction of the conveyor belt (2) for the soup bowl (10), realizing the flushing of the soup bowl (10) by the water medium.

2. The processing equipment for Tremella aurantialba soup according to claim 1, wherein The conveying rack (1) is annular.

3. The big tremella aurantialba soup processing equipment according to claim 1, characterized in that, The surface of the conveyor belt (2) is equidistantly provided with mounting grooves (200) for restricting the bottom of the soup bowl (10).

4. The Tremella aurantialba soup processing equipment according to claim 1, characterized in that, An overflow component (9) is installed on the outside of the conveying rack (1) and on one side of the drainage seat (11).

5. The Tremella aurantialba processing equipment according to claim 3, characterized in that, An adjusting cylinder (12) is installed at the bottom of the conveyor belt (2) and below the mounting groove (200), and a power fan blade (13) is movably installed at the bottom of the adjusting cylinder (12). At the inner top of the adjusting cylinder (12), an axial flow fan blade (14) coaxial with the power fan blade (13) is fixedly installed. At the top of the rotating shaft of the axial flow fan blade (14), a lead screw (16) is movably installed through a torque limiter (15). A communication groove (121) is opened inside the adjusting cylinder (12) above the axial flow fan blade (14). At the outer bottom of the adjusting cylinder (12), an air delivery pipe (17) communicating with the chamber where the axial flow fan blade (14) is located is fixedly installed. A guide frame is threadedly connected to the outside of the lead screw (16), and a plugging seat (18) is fixedly installed on the guide frame.

6. The big tremella aurantialba processing equipment according to claim 5, characterized in that The bottom end of the air delivery pipe (17) is located below the axial flow fan blade (14), and the top end passes through the conveyor belt (2) and is located above the conveying rack (1).

7. The Tremella aurantialba soup processing equipment according to claim 5, characterized in that A liquid discharge groove (120) is opened at the bottom of the adjusting cylinder (12) and below the plugging seat (18).

8. The big tremella aurantialba soup processing equipment according to claim 5, characterized in that Air jet ports (201) are circumferentially and equiangularly arranged on the surface of the conveyor belt (2) and outside the mounting groove (200).

9. A processing method for Tremella aurantialba big ear soup, using the equipment described in claim 1, characterized in that, Including the following steps: S1. First, confirm the total number of bowls in the order, and then prepare all the required various materials according to the ingredient list. S2. Then convert the number of pots into the unit of "1" for washing the materials and adjusting the water. S3. Convert the amount of each dry material into the amount for 500 bowls per pot for weighing and cleaning. S4. Soak tremella in clean water for 5 minutes, strain and set aside. After calculating the weight per single bowl per pot, feed it into the feeding component 5. After feeding, use the capping component 6 to seal it. S5. Pretreatment process of dried bird's nest: First, spray and humidify the dried bird's nest with purified water until the bird's nest becomes soft. Then, bring the water to a boil, cover it, and steam for 18 minutes at 90 - 95°C. Cool the steamed bird's nest with ice water and soak it for 25 - 30 minutes. S6. Wash the dry materials with clean water, pour them into a strainer, strain and set aside. S7. Ratio and feeding amount per bowl: wet and warm materials / dry materials = ratio, and then dry materials * ratio = feeding weight per bowl.

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