Transport device for processing of halogen eggs

Abstract

The application relates to the technical field of transportation equipment, in particular to a transportation device for processing marinated eggs, which comprises a mounting frame and further comprises: a material box fixedly connected to the mounting frame and horizontally opposite to a conveying belt transverse part at a discharging port; and multiple inclined plates alternately arranged left and right in the material box. The multiple inclined plates are alternately arranged left and right and closely connected with step-by-step driving elements, so that the shelled eggs are batch blocked and released. The design can avoid the one-time large outflow of the eggs, reduce the mutual collision between the eggs, and effectively reduce the breakage rate. Meanwhile, the linkage element is used to make the baffle automatically deflect and stand up when the baffle is moved to a position behind the material box by the conveying belt, so that the violent pushing of the baffle on the shelled eggs at the discharging port is avoided, the extrusion force on the shelled eggs is greatly reduced, and the overall quality of the marinated eggs is improved.

Description

TECHNICAL FIELD

[0001] The application relates to the technical field of transportation equipment, in particular to a transportation device for marinated egg processing. BACKGROUND

[0002] In the fine processing flow of marinated eggs, it is a crucial link to ensure that shelled eggs can smoothly and uniformly enter a mobile marinating box for sufficient marinating, and the current technical solution relies on a conveyor belt system which skillfully designs uniformly distributed baffles aiming to lift shelled eggs one by one to the required height for subsequent marinating treatment. However, this design has shown several limitations in actual operation.

[0003] Specifically, since the baffles are arranged at fixed intervals on the conveyor belt, they limit the number of shelled eggs that can be added by workers at the conveyor belt inlet at one time. If too many shelled eggs are attempted to be stacked, the eggs at the bottom will bear the weight of the eggs above, which not only increases the risk of egg breakage and affects the integrity of the final product, but also causes the bottom eggs to be damaged due to the continuous contact of the baffles with the eggs during movement, even slight squeezing can cause damage to the bottom eggs, reducing the overall quality of the marinated eggs. In addition, this limitation forces workers to adopt a batch addition method, which not only increases the frequency of manual operation, but also prolongs the processing cycle, thereby affecting production efficiency. Therefore, we propose a transportation device for marinated egg processing. SUMMARY

[0004] To solve the above technical problems, the application provides a transportation device for marinated egg processing, which comprises a mounting frame, a conveyor belt, and further comprises:

[0005] A material box is fixedly connected to the mounting frame and its discharge opening is opposite to the transverse part of the conveyor belt.

[0006] A plurality of inclined plates are alternately arranged inside the material box, which are used to block and release shelled eggs in batches.

[0007] A step-by-step driving member is arranged on the material box and connected with the plurality of inclined plates, which is used to drive the inclined plates to deflect in sequence to realize step-by-step discharging of shelled eggs.

[0008] A plurality of baffles are evenly arranged at equal intervals on the conveyor belt, which are used to provide support during the transportation of shelled eggs.

[0009] A linkage member is installed on the conveyor belt and connected with the baffles, which is used to keep the baffles in a laid-down state when the conveyor belt drives the baffles to pass through the material box, and switch the baffles to a standing-up state when the baffles move to a position after the material box.

[0010] In some embodiments, the step-by-step driving member comprises a shaft I fixedly connected at one end of the inclined plate, one end of the shaft I penetrates through the material box and is rotationally connected therewith, a deflection rod is fixedly connected on the shaft I, one end of the deflection rod is fixedly connected with a shaft II, a rectangular plate is slidably connected on the material box, a guide groove is formed at one end of the rectangular plate, one end of the shaft II is located in the guide groove and is slidably connected with the inner wall thereof, and the rectangular plate is pushed to drive the shaft I to deflect;

[0011] A slide column is arranged at one end of the rectangular plate, a slide plate is slidably connected on the material box, a guide groove I is formed on the slide plate, the guide groove I is connected with the slide column corresponding to the bottommost inclined plate in the material box, and the guide groove I is used to drive the bottommost inclined plate to deflect first when the slide plate is moved;

[0012] A guide groove II is formed on the slide plate, the guide groove II is connected with the slide column corresponding to the middle inclined plate in the material box, and the guide groove II is used to drive the middle inclined plate to deflect subsequently when the slide plate is continuously moved;

[0013] A guide groove III is formed on the slide plate, the guide groove III is connected with the slide column corresponding to the top inclined plate in the material box, and the guide groove III is used to drive the top inclined plate to deflect last when the slide plate is further moved, wherein the guide groove I, the guide groove II and the guide groove III control the deflection sequence of the corresponding inclined plates respectively, so as to realize the batch release of the shelled eggs in the material box.

[0014] In some embodiments, an electric push rod is fixedly connected on the material box, an elongated end of the electric push rod is fixed with the slide plate, the electric push rod is used to drive the slide plate to move, a hollow cylinder is fixedly connected at one end of the rectangular plate, one end of the slide column is located in the hollow cylinder and is slidably connected with the inner wall thereof, and a spring is fixedly connected between one end of the slide column and the inner wall of the hollow cylinder;

[0015] The guide groove I comprises an inclined sliding groove I formed on the slide plate, one end of the slide column is located in the inclined sliding groove I, and the inclined sliding groove I is used to drive the slide column to move when the slide plate is moved;

[0016] A straight sliding groove I is formed on the slide plate and is in communication with the inclined sliding groove I, and the straight sliding groove I is used to keep the state of the slide column stable when the slide plate is continuously moved.

[0017] In some embodiments, the guide groove II comprises a straight sliding groove II formed on the slide plate, one end of the slide column is located in the straight sliding groove II, and the straight sliding groove II is used to keep the state of the slide column stable when the slide plate is moved, an inclined sliding groove II is formed on the slide plate and is in communication with the straight sliding groove II, and the inclined sliding groove II is used to drive the slide column to move when the slide plate is continuously moved;

[0018] A straight sliding groove III is formed on the slide plate and is in communication with the inclined sliding groove II, and the straight sliding groove III is used to ensure the stability of the state of the slide column when the slide plate is further moved.

[0019] In some embodiments, the guide groove member three comprises a straight guide groove four formed on the sliding plate, and the sliding column is located in the straight guide groove four to keep the sliding column stable when the sliding plate is moved.

[0020] The sliding plate is provided with a straight guide groove five in communication with the inclined guide groove three to keep the sliding column stable when the sliding plate is further moved.

[0021] In some embodiments, the sliding plate is provided with an inclined guide groove four in communication with the straight guide groove one, and the sliding plate is provided with a straight guide groove six in communication with the inclined guide groove one and the inclined guide groove four at both ends, the straight guide groove one is designed in a stepped manner, and the inclined surface is arranged at the step, and the straight guide groove six is also designed in a stepped manner, and the inclined surface is arranged at the step.

[0022] The sliding plate is provided with an inclined guide groove five in communication with the middle part of the straight guide groove three, and the sliding plate is provided with a straight guide groove seven in communication with the inclined guide groove five and the straight guide groove two at both ends, the straight guide groove seven is designed in a stepped manner, and the inclined surface is arranged at the step, and the straight guide groove three is designed in a stepped manner, and the inclined surface is arranged at the step.

[0023] The sliding plate is provided with an inclined guide groove six in communication with the middle part of the straight guide groove five, and the sliding plate is provided with a straight guide groove eight in communication with the inclined guide groove six and the straight guide groove four at both ends, the inclined guide groove three is designed in a stepped manner, and the inclined surface is arranged at the step, and the inclined guide groove six is designed in a stepped manner, and the inclined surface is arranged at the step.

[0024] In some embodiments, the linkage member comprises an L-shaped block fixedly connected to the conveying belt, the L-shaped block is made of rubber material, and an L-shaped guide groove is formed in the L-shaped block, two guide rods are symmetrically fixedly connected to the end of the baffle, both the guide rods are located in the L-shaped guide groove and are in sliding connection with the inner wall of the L-shaped guide groove, a elastic band is fixedly connected between one of the guide rods and the L-shaped block, a guide wheel is rotatably connected to the other guide rod, and a guide rail member connected with the guide wheel is arranged on the mounting frame to drive the guide wheel to move relative to the L-shaped block to drive the baffle to stand up.

[0025] In some embodiments, the guide rail member comprises a guide sliding groove formed in the mounting frame, one end of the guide wheel is located in the guide sliding groove and is in sliding connection with the inner wall of the guide sliding groove, the guide sliding groove is arranged along the track of the conveying belt, and the guide sliding groove is designed in a segmented manner, and the segmented connection portion is designed in an inclined outward expanding manner.

[0026] In some embodiments, the step-by-step driving component includes a shaft one fixedly connected to one end of an inclined plate, one end of the shaft one passing through and rotatably connected to a material box, a connecting rod fixedly connected to the shaft one, a plurality of sliders slidably connected to the material box, a shaft four fixedly connected to the sliders, a transverse sliding groove being provided at one end of the connecting rod, the shaft four being located within the transverse sliding groove, and a driving component two connected to the plurality of sliders being provided on the material box for driving the plurality of sliders to move.

[0027] In some embodiments, the second driving component includes a shaft five rotatably connected to the material box, a plurality of screws fixedly connected to the shaft five, the plurality of screws corresponding to and passing through a plurality of sliders, and a drive motor fixedly connected to the material box, the output end of the drive motor being fixed to the shaft five, and the thread density of the plurality of screws being designed to gradually increase.

[0028] This invention has at least the following beneficial effects:

[0029] 1. The discharge port of the material box of this device is precisely aligned with the horizontal feeding part of the conveyor belt, so that the shelled eggs can fall neatly and orderly onto the conveyor belt. The multiple inclined plates inside are arranged alternately from left to right and are closely connected with the step-by-step drive components to realize the batch blocking and release of shelled eggs. This design not only avoids a large number of eggs flowing out at once, but also reduces the collision between eggs and effectively reduces the breakage rate.

[0030] 2. This device utilizes a linkage mechanism to ensure that the baffle automatically tilts and stands upright only when it is moved to a position behind the material box by the conveyor belt. This avoids the baffle violently pushing the shelled eggs at the discharge port, greatly reducing the squeezing force on the shelled eggs and improving the overall quality of the braised eggs. Attached Figure Description

[0031] Figure 1 This is a schematic diagram of the overall structure of Embodiment 1 of the present invention;

[0032] Figure 2 For the present invention Figure 1 Schematic diagram of partial cross-section;

[0033] Figure 3 For the present invention Figure 2 Schematic diagram of the structure of area A in the middle;

[0034] Figure 4 For the present invention Figure 2 Schematic diagram of partial cross-section;

[0035] Figure 5 For the present invention Figure 4 Schematic diagram of the structure of Zone B;

[0036] Figure 6 For the present invention Figure 4 Schematic diagram of the structure of the middle C area;

[0037] Figure 7 Structure diagram of the material box of the present application;

[0038] Figure 8 Structure diagram of the slide plate of the present application;

[0039] Figure 9 Structure diagram of the mounting rack of the present application;

[0040] Figure 10 Structure diagram of the embodiment 2 of the present application.

[0041] In the figure: 1-mounting rack; 11-conveyer belt; 2-material box; 3-inclined plate; 4-step drive; 5-baffle; 6-linkage; 41-shaft one; 42-deflection lever; 43-shaft two; 44-guide slot; 45-sliding column; 46-slide plate; 47-guide slot one; 48-guide slot two; 49-guide slot three; 51-electric push rod; 52-hollow cylinder; 53-spring; 54-inclined sliding groove one; 55-straight sliding groove one; 56-straight sliding groove two; 57-inclined sliding groove two; 58-straight sliding groove three; 59-straight sliding groove four; 61-inclined sliding groove three; 62-straight sliding groove five; 63-inclined sliding groove four; 64-straight sliding groove six; 65-inclined surface; 66-inclined sliding groove five; 67-straight sliding groove seven; 68-inclined sliding groove six; 69-straight sliding groove eight; 71-L-shaped block; 72-L-shaped guide slot; 73-guide lever; 74-elastic band; 75-guide wheel; 76-guide rail; 77-guide slot; 78-linkage; 79-sliding block; 81-shaft four; 82-cross sliding groove; 83-drive two; 84-shaft five; 85-screw; 86-rectangular plate; 87-driving motor. DETAILED DESCRIPTION

[0042] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative work fall within the scope of protection of the present application.

[0043] Embodiment 1: please refer to Figures 1-9 The present application provides a technical solution: a conveying device for processing salted eggs, comprising a mounting rack 1 and a conveyer belt 11, further comprising:

[0044] A material box 2 is fixedly connected to the mounting rack 1 and its discharge port is opposite to the horizontal part of the conveyer belt 11, for accurately dropping the shelled eggs on the horizontal loading part of the conveyer belt 11;

[0045] A plurality of inclined plates 3 are alternately arranged inside the material box 2, for batch blocking and releasing the shelled eggs;

[0046] The step-by-step driving member 4 is arranged on the material box 2 and connected with the plurality of inclined plates 3, and is used to drive the inclined plates 3 to deflect in sequence to realize step-by-step feeding of the shelled eggs;

[0047] The plurality of baffles 5 are arranged equidistantly and uniformly on the conveying belt 11, and are used to provide support during the transportation of the shelled eggs;

[0048] The linkage member 6 is installed on the conveying belt 11 and connected with the baffles 5, and is used to keep the baffles 5 in a laid-down state during the process that the conveying belt 11 drives the baffles 5 to pass through the material box 2;

[0049] And when the baffles 5 move to a position after the material box 2, the linkage member 6 is used to switch the baffles 5 to a standing-up state;

[0050] Specifically, the discharge port of the material box 2 of the device is accurately aligned with the transversely arranged feeding part of the conveying belt 11, which improves the accuracy of feeding, reduces the scattering of the eggs, and enables the shelled eggs to fall on the conveying belt 11 in an orderly and neat manner. The plurality of inclined plates 3 arranged inside are alternately arranged left and right, are closely connected with the step-by-step driving member 4, realize the batch blocking and releasing of the shelled eggs, and thus the staff need not frequently perform feeding operation, which is relatively simple and convenient;

[0051] This design not only avoids the large amount of eggs pouring out at one time, reduces the mutual collision between the eggs, effectively reduces the breakage rate, but also ensures the uniform distribution of the eggs on the conveying belt 11, and lays a solid foundation for the subsequent marinating process;

[0052] Meanwhile, the linkage member 6 enables the baffles 5 to automatically deflect and stand up when the conveying belt 11 drives the baffles 5 to move to a position after the material box 2, avoids the violent pushing of the shelled eggs by the baffles 5 at the discharge port, greatly reduces the extrusion force on the shelled eggs, and improves the overall quality of the marinated eggs.

[0053] The step-by-step driving member 4 includes a shaft one 41 fixedly connected to one end of the inclined plate 3, one end of the shaft one 41 penetrates through the material box 2 and is rotatably connected with the material box 2 through a bearing, a deflection rod 42 is fixedly connected to the shaft one 41, a shaft two 43 is fixedly connected to one end of the deflection rod 42, a rectangular plate 86 is slidably connected to the material box 2, a guide groove 44 is formed in one end of the rectangular plate 86, one end of the shaft two 43 is located in the guide groove 44 and is slidably connected with the inner wall of the guide groove 44, the deflection rod 42 is deflected by pushing the rectangular plate 86, so as to drive the shaft one 41 and the inclined plate 3 to deflect and open;

[0054] And the rectangular plate 86 is provided with a slide column 45 at one end, the slide plate 46 is slidably connected to the material box 2, the slide plate 46 is provided with a guide groove one 47, the inclined plate 3 is provided with three, the guide groove one 47 is connected with the slide column 45 corresponding to the bottommost inclined plate 3 in the material box 2, for driving the bottommost inclined plate 3 to deflect first when the slide plate 46 is moved;

[0055] And the slide plate 46 is provided with a guide groove two 48, the guide groove two 48 is connected with the slide column 45 corresponding to the middle inclined plate 3 in the material box 2, for driving the middle inclined plate 3 to deflect subsequently when the slide plate 46 is continuously moved;

[0056] And the slide plate 46 is provided with a guide groove three 49, the guide groove three 49 is connected with the slide column 45 corresponding to the top inclined plate 3 in the material box 2, for driving the top inclined plate 3 to deflect lastly when the slide plate 46 is further moved, wherein the guide groove one 47, the guide groove two 48 and the guide groove three 49 control the deflection sequence of the corresponding inclined plate 3 respectively, to realize the batch release of the shelled eggs in the material box 2.

[0057] The material box 2 is fixedly connected with an electric push rod 51, and the extension end of the electric push rod 51 is fixed with the slide plate 46, for driving the slide plate 46 to move, one end of the rectangular plate 86 is fixedly connected with a hollow cylinder 52, one end of the slide column 45 is located in the hollow cylinder 52 and is slidably connected with the inner wall thereof, and a spring 53 is fixedly connected between one end of the slide column 45 and the inner wall of the hollow cylinder 52, for compressing the spring 53 to provide self-recovery elastic force for the spring 53 when the slide column 45 passes over the inclined surface 65;

[0058] The guide groove one 47 comprises an inclined sliding groove one 54 provided on the slide plate 46, and one end of the slide column 45 is located in the inclined sliding groove one 54, for driving the slide column 45 to move when the slide plate 46 is moved;

[0059] And a straight sliding groove one 55 is provided on the slide plate 46 and communicated with the inclined sliding groove one 54, for keeping the state of the slide column 45 stable when the slide plate 46 is continuously moved.

[0060] The guide groove two 48 comprises a straight sliding groove two 56 provided on the slide plate 46, and one end of the slide column 45 is located in the straight sliding groove two 56, for keeping the state of the slide column 45 stable when the slide plate 46 is moved, and the slide plate 46 is provided with an inclined sliding groove two 57 communicated with the straight sliding groove two 56, for driving the slide column 45 to move when the slide plate 46 is continuously moved;

[0061] The slide plate 46 is provided with a straight sliding groove three 58 communicated with the inclined sliding groove two 57, for ensuring the state of the slide column 45 stable when the slide plate 46 is further moved.

[0062] The guide groove piece three 49 comprises a straight sliding groove four 59 formed on the sliding plate 46, and the sliding column 45 is located in the straight sliding groove four 59 at one end, which is used to keep the sliding column 45 stable when the sliding plate 46 is moved; the sliding plate 46 is formed with an inclined sliding groove three 61 in communication with the straight sliding groove four 59, which is used to move the sliding column 45 when the sliding plate 46 is continuously moved;

[0063] The sliding plate 46 is formed with a straight sliding groove five 62 in communication with the inclined sliding groove three 61, which is used to keep the sliding column 45 stable when the sliding plate 46 is further moved;

[0064] Specifically, when the device needs to discharge, the electric push rod 51 is started to retract to drive the sliding plate 46 to move down to the bottom. For the bottom layer of the inclined plate 3, in this process, the sliding column 45 is first moved by the inclined sliding groove one 54 to drive the inclined plate 3 to directly open and discharge, and then the sliding column 45 is continuously slid along the straight sliding groove one 55 to keep the inclined plate 3 in the open state.

[0065] For the middle layer of the inclined plate 3, in this process, the sliding column 45 is first slid along the straight sliding groove two 56 to keep the inclined plate 3 in the unopened state, and then the sliding column 45 is slid along the inclined sliding groove two 57 to drive the inclined plate 3 to deflect and open. The purpose of such design is to open the inclined plate 3 of this layer when there is still a certain amount of shelled eggs on the bottom layer of the inclined plate 3, so that the shelled eggs on this layer can fall on the shelled eggs on the lower layer to serve as a buffer and reduce the breakage of the shelled eggs, and then the sliding column 45 is slid along the straight sliding groove three 58 to keep the inclined plate 3 in the open state.

[0066] For the upper layer of the inclined plate 3, in this process, the sliding column 45 is first slid along the straight sliding groove four 59 to keep the inclined plate 3 in the unopened state. Specifically, the length of the straight sliding groove four 59 is twice that of the straight sliding groove two 56, which is used to open the inclined plate 3 of this layer after the bottom layer of the inclined plate 3 is completely opened, and then the sliding column 45 is slid along the inclined sliding groove three 61 to drive the inclined plate 3 to deflect and open, which also achieves the buffering effect of the shelled eggs during discharging, and then the sliding column 45 is slid along the straight sliding groove five 62 to keep the inclined plate 3 in the open state.

[0067] The inclined sliding groove four 63 is communicated with the end of the straight sliding groove one 55, and the sliding plate 46 is provided with the straight sliding groove six 64, the two ends of which are communicated with the inclined sliding groove one 54 and the inclined sliding groove four 63 respectively, the straight sliding groove one 55 is designed in a stepped manner, and the inclined surface 65 is arranged at the step, and the straight sliding groove six 64 is also designed in a stepped manner, and the inclined surface 65 is arranged at the step, so that the junction of the inclined sliding groove one 54 and the straight sliding groove six 64 is stepped, and the depth of the inclined sliding groove one 54 is deeper than that of the straight sliding groove six 64, so that when the sliding plate 46 drives the inclined plate 3 to open, the sliding rod 45 can only slide along the inclined sliding groove one 54, at the same time, the junction of the straight sliding groove one 55 and the inclined sliding groove six 68 is stepped, and the depth of the inclined sliding groove six 68 is deeper than that of the straight sliding groove one 55, so that when the sliding plate 46 drives the inclined plate 3 to close, the sliding rod 45 can only slide along the inclined sliding groove four 63, specifically, in the pulling and pushing movement of the electric push rod 51, the sliding rod 45 slides along the inclined sliding groove one 54, the straight sliding groove one 55, the inclined sliding groove four 63 and the straight sliding groove six 64, and the cycle is repeated, so that the bottommost inclined plate 3 is opened first and closed first, which meets the operation of step-by-step unloading and loading;

[0068] The inclined sliding groove five 66 is communicated with the middle part of the straight sliding groove three 58, and the sliding plate 46 is provided with the straight sliding groove seven 67, the two ends of which are communicated with the inclined sliding groove five 66 and the straight sliding groove two 56 respectively, the straight sliding groove seven 67 is designed in a stepped manner, and the inclined surface 65 is arranged at the step, and the straight sliding groove three 58 is designed in a stepped manner, and the inclined surface 65 is arranged at the step, so that the junction of the inclined sliding groove two 57 and the straight sliding groove seven 67 is stepped, and the depth of the inclined sliding groove two 57 is deeper than that of the straight sliding groove seven 67, so that when the sliding plate 46 moves upwards, the sliding rod 45 can only slide along the inclined sliding groove two 57, at the same time, the junction of the straight sliding groove three 58 and the inclined sliding groove five 66 is stepped, and the depth of the inclined sliding groove five 66 and the straight sliding groove three 58 divided by the inclined sliding groove five 66 is deeper than that of the straight sliding groove three 58, so that when the sliding plate 46 moves downwards, the sliding rod 45 can only slide along the inclined sliding groove five 66 and the deep straight sliding groove three 58 divided by the inclined sliding groove five 66, specifically, in the pulling and pushing movement of the electric push rod 51, the sliding rod 45 slides along the straight sliding groove two 56, the inclined sliding groove two 57, the shallow straight sliding groove three 58, the deep straight sliding groove three 58, the deep straight sliding groove three 58, the inclined sliding groove five 66, the straight sliding groove seven 67 and the straight sliding groove one 55, and the cycle is repeated, so that the middle inclined plate 3 is opened later and closed later, which meets the operation of step-by-step unloading and loading;

[0069] And the inclined sliding groove six 68 is communicated with the middle part of the straight sliding groove five 62, the sliding plate 46 is provided with a straight sliding groove eight 69, the two ends of the straight sliding groove eight 69 are communicated with the inclined sliding groove six 68 and the straight sliding groove four 59 respectively, the inclined sliding groove three 61 is designed in a stepped manner, and the stepped part is provided with an inclined surface 65, the inclined sliding groove six 68 is designed in a stepped manner, and the stepped part is provided with an inclined surface 65, and the stepped part and the inclined surface 65 are designed in the same way as the above effect.

[0070] Specifically, the above design can achieve that when the device main body needs to be loaded, the electric push rod 51 is started to sequentially close the three inclined plates 3 from bottom to top, thereby ensuring the orderliness during loading, and when the electric push rod 51 is started to unload, the three inclined plates 3 are also sequentially opened from small to large, thereby ensuring the orderliness during unloading.

[0071] The linkage 6 comprises an L-shaped block 71 fixedly connected to the conveying belt 11, the L-shaped block 71 is made of rubber material, and an L-shaped guide groove 72 is formed in the L-shaped block 71; the end portion of the baffle 5 is fixedly connected with two guide rods 73 which are symmetrically arranged and are located in the L-shaped guide groove 72 and are in sliding connection with the inner wall of the L-shaped guide groove 72; a elastic band 74 is fixedly connected between one of the guide rods 73 and the L-shaped block 71; the other guide rod 73 is rotatably connected with a guide wheel 75; and the mounting frame 1 is provided with a guide rail member 76 connected with the guide wheel 75, which is used to drive the guide wheel 75 to move relative to the L-shaped block 71 so as to drive the baffle 5 to stand up.

[0072] The guide rail member 76 comprises a guide sliding groove 77 formed in the mounting frame 1, one end of the guide wheel 75 is located in the guide sliding groove 77 and is in sliding connection with the inner wall of the guide sliding groove 77; the guide sliding groove 77 is arranged along the track of the conveying belt 11; and the guide sliding groove 77 is designed in a segmented manner, and the segmented connection part is designed in an outwardly expanding manner; specifically, when the conveying belt 11 moves, the guide wheel 75 is driven to move along the guide sliding groove 77, and when the baffle 5 passes through the discharge opening, the baffle 5 slides along the outwardly expanding part of the guide sliding groove 77, thereby driving the baffle 5 to stand up and positioning the two guide rods 73 in the vertical part of the L-shaped guide groove 72, and at the same time, the elastic band is elongated to provide self-recovery force; after the conveying belt 11 drives the standing baffle 5 to send the shelled eggs to a high place, the guide wheel 75 slides along the outwardly expanding part of the guide sliding groove 77, thereby driving the baffle 5 to be laid down and passing through the discharge opening in a laid-down state, so as to avoid violent pushing of the shelled eggs by the baffle 5 at the discharge opening, greatly reduce the extrusion force on the shelled eggs, and improve the overall quality of the marinated eggs.

[0073] Embodiment 2: please refer to Figures 1-10 The present application provides a technical solution: embodiment 2 is another specific embodiment of the step-by-step driving member 4 in embodiment 1;

[0074] The step-by-step driving part 4 comprises a shaft one 41 fixedly connected to one end of the inclined plate 3, one end of the shaft one 41 penetrating through the material box 2 and being rotatably connected thereto, the shaft one 41 being fixedly connected with a connecting rod 78, the material box 2 being slidably connected with a plurality of sliding blocks 79, the sliding blocks 79 being fixedly connected with a shaft four 81, one end of the connecting rod 78 being provided with a horizontal sliding slot 82, the shaft four 81 being located in the horizontal sliding slot 82 and being slidably connected with the inner wall of the horizontal sliding slot 82, and the material box 2 being provided with a driving part two 83 connected with the plurality of sliding blocks 79 for driving the plurality of sliding blocks 79 to move.

[0075] The driving part two 83 comprises a shaft five 84 rotatably connected to the material box 2, a plurality of screw rods 85 fixedly connected to the shaft five 84, the plurality of screw rods 85 penetrating through the plurality of sliding blocks 79 and being threadedly connected therewith, and a driving motor 87 fixedly connected to the material box 2, an output end of the driving motor 87 being fixed to the shaft five 84, and the plurality of screw rods 85 being designed with gradually increasing thread density, specifically, the screw rods 85 are designed with gradually increasing thread density from bottom to top, so that the shaft five 84 is driven to rotate after the driving motor 87 is started, thereby driving the plurality of screw rods 85 to rotate, and driving the plurality of sliding blocks 79 to move, and driving the plurality of connecting rods 78 to deflect, thereby driving the plurality of shaft ones 41 and the plurality of inclined plates 3 to rotate, specifically, the deflection speed of the plurality of inclined plates 3 is reduced from bottom to top, so as to achieve the effect of slowly releasing the shelled eggs.

[0076] It should be noted that the relative terms, such as first and second, and the like, are used herein solely to distinguish one entity or action from another, without necessarily requiring or implying any such actual relationship or order between such entities or actions. Moreover, the terms "comprises", "comprising", or any other variations thereof, are intended to cover a non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements does not include only those elements but can include other elements not expressly listed or inherent to such process, method, article, or apparatus.

[0077] Although the embodiments of the present application have been shown and described, it should be understood by those ordinary skilled in the art that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the present application.

Claims

1. A conveyor device for processing braised eggs, comprising a mounting frame (1) and a conveyor belt (11), characterized in that: It also includes: The material box (2) is fixedly connected to the mounting frame (1) and its outlet is directly opposite the horizontal part of the conveyor belt (11); Multiple inclined plates (3) are alternately set inside the feed box (2) to block and release shelled eggs in batches; Step-by-step drive unit (4) is set on the material box (2) and connected to multiple inclined plates (3) to drive the inclined plates (3) to deflect in sequence so as to realize the step-by-step feeding of shelled eggs; Multiple baffles (5) are evenly spaced on the conveyor belt (11) to provide support during the transport of shelled eggs; Linkage component (6), installed on the conveyor belt (11) and connected to the baffle (5), is used to keep the baffle (5) in a down position during the process of the conveyor belt (11) driving the baffle (5) through the material box (2), and to switch the baffle (5) to an upright position when the baffle (5) moves to a position after the material box (2). The step-by-step drive component (4) includes a shaft (41) fixedly connected to one end of the inclined plate (3). One end of the shaft (41) passes through the material box (2) and is rotatably connected to it. A deflection rod (42) is fixedly connected to the shaft (41). A shaft (43) is fixedly connected to one end of the deflection rod (42). A rectangular plate (86) is slidably connected to the material box (2). A guide groove (44) is provided at one end of the rectangular plate (86). One end of the shaft (43) is located in the guide groove (44) and is slidably connected to its inner wall. The rectangular plate (86) is pushed to drive the shaft (41) to deflect. Furthermore, a sliding column (45) is provided at one end of the rectangular plate (86), a sliding plate (46) is slidably connected to the material box (2), a guide groove (47) is provided on the sliding plate (46), and three inclined plates (3) are provided. The guide groove (47) is connected to the sliding column (45) corresponding to the inclined plate (3) located at the bottom inside the material box (2), and is used to drive the inclined plate (3) at the bottom to deflect first when the sliding plate (46) is moved. A guide groove (48) is provided on the slide plate (46). The guide groove (48) is connected to the slide column (45) corresponding to the inclined plate (3) located in the middle of the material box (2). It is used to drive the inclined plate (3) in the middle to deflect when the slide plate (46) continues to move. A guide groove (49) is provided on the slide plate (46). The guide groove (49) is connected to the sliding column (45) corresponding to the inclined plate (3) located at the top inside the material box (2). It is used to drive the inclined plate (3) at the top to deflect last when the slide plate (46) is moved further. The guide groove (1) (47), guide groove (2) (48) and guide groove (3) (49) control the deflection sequence of the corresponding inclined plate (3) respectively, so as to realize the batch release of shelled eggs in the material box (2). An electric push rod (51) is fixedly connected to the material box (2), and the extended end of the electric push rod (51) is fixed to the slide plate (46) for driving the slide plate (46) to move. A hollow cylinder (52) is fixedly connected to one end of the rectangular plate (86). One end of the sliding column (45) is located inside the hollow cylinder (52) and is slidably connected to its inner wall. A spring (53) is fixedly connected between one end of the sliding column (45) and the inner wall of the hollow cylinder (52). The guide groove component (47) includes an inclined slide groove (54) formed on the slide plate (46), and one end of the slide column (45) is located in the inclined slide groove (54) for moving the slide column (45) when the slide plate (46) is moved. Furthermore, a straight slide groove (55) is provided on the slide plate (46) to communicate with the inclined slide groove (54), which is used to keep the slide column (45) stable when the slide plate (46) continues to move.

2. The conveying device for processing braised eggs according to claim 1, characterized in that: The guide groove component 2 (48) includes a straight slide groove 2 (56) opened on the slide plate (46), one end of the slide column (45) is located in the straight slide groove 2 (56) and is used to keep the slide column (45) stable when the slide plate (46) is moved. The slide plate (46) is provided with an oblique slide groove 2 (57) that communicates with the straight slide groove 2 (56) and is used to drive the slide column (45) to move when the slide plate (46) continues to move. The slide plate (46) is provided with a straight slide groove (58) that is connected to the inclined slide groove (57) to ensure the stability of the slide column (45) when the slide plate (46) is moved further.

3. The conveying device for processing braised eggs according to claim 2, characterized in that: The guide groove component three (49) includes a straight slide groove four (59) opened on the slide plate (46), one end of the slide column (45) is located in the straight slide groove four (59) and is used to keep the slide column (45) stable when the slide plate (46) is moved. The slide plate (46) is provided with an oblique slide groove three (61) that communicates with the straight slide groove four (59) and is used to drive the slide column (45) to move when the slide plate (46) continues to move. The slide plate (46) is provided with a straight slide groove five (62) that is connected to the inclined slide groove three (61) to ensure the stability of the slide column (45) when the slide plate (46) is moved further.

4. The conveying device for processing braised eggs according to claim 3, characterized in that: The slide plate (46) is provided with a slanted slide groove four (63) that communicates with the straight slide groove one (55). The slide plate (46) is provided with a straight slide groove six (64). The two ends of the straight slide groove six (64) are respectively connected to the slanted slide groove one (54) and the slanted slide groove four (63). The straight slide groove one (55) adopts a stepped design and has a slanted surface (65) at its step. The straight slide groove six (64) also adopts a stepped design and has a slanted surface (65) at its step. Furthermore, a slanted slide groove five (66) is provided on the slide plate (46) and communicates with the middle of the straight slide groove three (58). A straight slide groove seven (67) is provided on the slide plate (46). The two ends of the straight slide groove seven (67) are respectively communicated with the slanted slide groove five (66) and the straight slide groove two (56). The straight slide groove seven (67) adopts a stepped design and has a slope (65) at its step. The straight slide groove three (58) adopts a stepped design and has a slope (65) at its step. An inclined slide groove six (68) is provided on the slide plate (46) and communicates with the middle of the straight slide groove five (62). An inclined slide groove eight (69) is provided on the slide plate (46). The two ends of the straight slide groove eight (69) are respectively connected to the inclined slide groove six (68) and the straight slide groove four (59). The inclined slide groove three (61) adopts a stepped design and has an inclined surface (65) at its step. The inclined slide groove six (68) adopts a stepped design and has an inclined surface (65) at its step.

5. The conveying device for processing braised eggs according to claim 1, characterized in that: The linkage component (6) includes an L-shaped block (71) fixedly connected to the conveyor belt (11). The L-shaped block (71) is made of rubber and has an L-shaped guide groove (72) on it. Two guide rods (73) are symmetrically fixedly connected to the end of the baffle (5). Both guide rods (73) are located in the L-shaped guide groove (72) and are slidably connected to its inner wall. An elastic band (74) is fixedly connected between one guide rod (73) and the L-shaped block (71). A guide wheel (75) is rotatably connected to the other guide rod (73). A guide rail component (76) connected to the guide wheel (75) is provided on the mounting bracket (1) to drive the guide wheel (75) to move relative to the L-shaped block (71) so as to drive the baffle (5) to stand up.

6. The conveying device for processing braised eggs according to claim 5, characterized in that: The guide rail component (76) includes a guide groove (77) opened on the mounting frame (1). One end of the guide wheel (75) is located in the guide groove (77) and is slidably connected to its inner wall. The guide groove (77) is arranged along the track of the conveyor belt (11). The guide groove (77) adopts a segmented design, and the segment connection adopts an oblique outward expansion design.

7. The conveying device for processing braised eggs according to claim 1, characterized in that: The step-by-step drive component (4) includes a shaft (41) fixedly connected to one end of the inclined plate (3). One end of the shaft (41) passes through the material box (2) and is rotatably connected to it. A connecting rod (78) is fixedly connected to the shaft (41). Multiple sliders (79) are slidably connected to the material box (2). A shaft (81) is fixedly connected to the slider (79). A horizontal sliding groove (82) is opened at one end of the connecting rod (78). The shaft (81) is located in the horizontal sliding groove (82). A drive component (83) connected to the multiple sliders (79) is provided on the material box (2) for driving the multiple sliders (79) to move.

8. The conveying device for processing braised eggs according to claim 7, characterized in that: The second driving component (83) includes a shaft five (84) rotatably connected to the material box (2), a plurality of screws (85) are fixedly connected to the shaft five (84), the plurality of screws (85) pass through a plurality of sliders (79), and a drive motor (87) is fixedly connected to the material box (2). The output end of the drive motor (87) is fixed to the shaft five (84), and the thread density of the plurality of screws (85) is designed to gradually increase.

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