Intelligent silkworm breeding leaf uniformizing treatment equipment

Abstract

The invention discloses intelligent silkworm breeding leaf uniformizing treatment equipment which comprises a smashing mechanism, a conveying mechanism, a screening mechanism and a leaf uniformizing mechanism. The crushing mechanism is configured to adjust the size of crushed mulberry leaves; the conveying mechanism is configured to convey the mulberry leaves from the crushing mechanism to the screening mechanism; the screening mechanism is configured to screen mulberry leaves with proper sizes and convey the screened mulberry leaves to the leaf uniformizing mechanism, and the leaf uniformizing mechanism is configured to uniformly put the mulberry leaves into silkworm trays and recover the mulberry leaves which are not put into the silkworm trays to the conveying mechanism. According to the intelligent silkworm breeding leaf uniformizing treatment equipment, mulberry leaves are smashed into a proper size through the smashing mechanism, the mulberry leaves are fed to silkworms through the conveying mechanism and the screening mechanism, and accurate cutting can be conducted according to the demand quantity of the silkworms of different month ages.

Description

Technical Field

[0001] The invention relates to intelligent silkworm breeding leaf leveling processing equipment. Background Art

[0002] Sericulture is an ancient agricultural culture and industry that has always occupied an important position in my country's agricultural industry. As we all know, cutting mulberry leaves is a relatively arduous task in the silkworm breeding process. In the past, manual cutting has always been used, which is relatively backward. The following problems exist in the existing technology: In silkworm breeding operations, most of the feeding is done manually. Since silkworms of different types and stages require mulberry leaves of different sizes, the cut mulberry leaves require special screening equipment to screen the mulberry leaves of different sizes. The manual labor intensity is high and the efficiency is low. In addition, the cut mulberry leaves need to be evenly laid out manually to improve the feeding efficiency of the silkworms. Such inefficient labor has greatly restricted the scale and benefits of my country's silkworm breeding industry.

[0003] Secondly, there's the issue of mulberry leaf utilization. Mulberry leaves are a major cost in sericulture, and the amount of mulberry leaves consumed varies depending on the age of the silkworms. Leaving fresh mulberry leaves for too long can cause them to dry out and become stale. Therefore, feeding silkworms of different ages a specific amount and size of mulberry leaves can improve leaf utilization and avoid unnecessary waste. To address this issue, this paper proposes an intelligent mulberry leaf processing device for silkworms to address these issues. Summary of the Invention

[0004] In order to overcome the deficiencies of the prior art, the present invention provides an intelligent silkworm breeding leaf leveling processing device.

[0005] In order to achieve the above-mentioned objectives, the present invention adopts the following technical solutions: an intelligent silkworm breeding and leaf-leveling processing equipment, comprising a crushing mechanism, a transport mechanism, a screening mechanism and a leaf-leveling mechanism; the crushing mechanism is configured to adjust the size of the crushed mulberry leaves; the transport mechanism is configured to transport the mulberry leaves from the crushing mechanism to the screening mechanism; the screening mechanism is configured to screen mulberry leaves of appropriate size and transport the screened mulberry leaves to the leaf-leveling mechanism, and the leaf-leveling mechanism is configured to evenly place the mulberry leaves into the silkworm tray and recycle the mulberry leaves that are not placed into the silkworm tray back to the transport mechanism.

[0006] Furthermore, the leaf-evening mechanism includes an extended belt line and a silkworm tray acupoint belt line. The extended belt line is arranged above the silkworm tray acupoint belt line, and the end of the extended belt line can move above the silkworm tray acupoint belt line at a uniform speed; the silkworm tray acupoint belt line includes an acupoint belt provided with feed holes, and the number and size of the feed holes match the number and size of the acupoints of the silkworm tray.

[0007] Furthermore, the extended belt line includes a moving part, a rolling part and an extended belt. The moving part is configured to enable the extended belt to approach or move away from the silkworm plate acupoint belt line at a uniform speed in the horizontal direction; the rolling part is configured to enable the extended belt to be transmitted at a uniform speed on the first roller and control the extension length of the extended belt.

[0008] Furthermore, the silkworm plate acupoint belt line also includes an acupoint belt bracket, the sixth roller is arranged on the acupoint belt bracket, the acupoint belt is installed on the sixth roller, and the sixth roller can drive the acupoint belt to transmit to the transportation mechanism.

[0009] Furthermore, the screening mechanism includes a screening cover, a vibration frame, a vibration member and a vibration motor. The vibration frame is connected to the top of the screening cover through the vibration member. The screening cover is placed on the vibration frame. The vibration motor can drive the screening cover to vibrate.

[0010] Furthermore, the vibration member includes a main vibration component and a secondary vibration component connected to the vibration motor, and the main vibration component and the secondary vibration component are both arranged on the vibration frame.

[0011] Furthermore, the screening cover includes a central placement area and a screening area. The screening areas are evenly distributed around the central placement area, and the screening areas are provided with sieve holes of uniform size.

[0012] Furthermore, the transport mechanism includes a first conveyor belt, a second conveyor belt and a third conveyor belt. The crushing mechanism is arranged on the side of the first conveyor belt and can transport the crushed mulberry leaves to the first conveyor belt. The third conveyor belt transports the mulberry leaves to the screening mechanism.

[0013] Furthermore, the crushing mechanism also includes an absorption component, which can suck the mulberry leaves on the first conveyor belt into the crushing mechanism for secondary crushing.

[0014] Furthermore, a funnel is provided at the terminal end of the third conveyor belt, and mulberry leaves can fall into the screening cover through the funnel.

[0015] In summary, the intelligent silkworm rearing and leaf-leveling processing equipment of the present invention crushes mulberry leaves into appropriate sizes through a crushing mechanism, and feeds them to silkworms through a transport mechanism and a screening mechanism, allowing precise cutting according to the needs of silkworms of different ages. Secondly, the present invention evenly places mulberry leaves into the silkworm tray through the leaf-leveling mechanism, thereby achieving the purpose of quantitative feeding of silkworms. In addition, the leaf-leveling mechanism can also recycle mulberry leaves that have not been fed to the transport mechanism, allowing the crushing mechanism to perform secondary processing, thereby greatly improving the utilization rate of mulberry leaves and reducing the cost of silkworm rearing. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 The structure of the present invention is schematically shown Figure 1 .

[0017] Figure 2 The structure of the present invention is schematically shown Figure 2 .

[0018] Figure 3 It is a schematic structural diagram of the crushing mechanism of the present invention.

[0019] Figure 4 It is a schematic diagram of the transportation mechanism structure of the present invention.

[0020] Figure 5 It is a three-dimensional schematic diagram of the screening mechanism structure of the present invention.

[0021] Figure 6 It is a schematic top view of the screening mechanism structure of the present invention.

[0022] Figure 7 It is a structural schematic diagram of the leaf balancing mechanism of the present invention.

[0023] Figure 8 This is a schematic diagram of the extended belt line structure of the present invention.

[0024] Figure 9 It is a schematic diagram of the extended structure of the extended belt line structure of the present invention.

[0025] Figure 10 It is a schematic diagram of the contraction structure of the extended belt line structure of the present invention.

[0026] Figure 11 It is a schematic diagram of the structure of the silkworm plate acupoint belt line of the present invention.

[0027] Figure 12 Schematic diagram of the silkworm tray structure of the present invention. DETAILED DESCRIPTION

[0028] In order to enable those skilled in the art to better understand the solutions of the present invention, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the accompanying drawings in the embodiments of the present invention.

[0029] The silkworm tray 5 is a tool used to raise silkworms. Raising silkworms in batches promotes optimal growth. Generally speaking, varying temperature and humidity control is more beneficial to silkworm growth. Temperature: 26-29°C is required for young silkworms (ages 1-3), and 23-26°C for mature silkworms (ages 4-5), with a day-night temperature difference of no more than 1°C. Cooling can be achieved by spraying well water in summer, and using heating pads in winter. Humidity: 85-90% humidity for young silkworms, gradually decreasing to 65-75% for mature silkworms. Excessive humidity can easily lead to stiffness, while excessively low humidity can affect molting. Adjustment can be achieved by hanging damp cloths or sprinkling water on the ground. Therefore, raising silkworms in the silkworm tray 5 facilitates the movement of silkworms of different ages to different environments. In the present invention, the silkworm tray 5, in conjunction with the processing equipment of the present invention, precisely feeds silkworms of different ages, feeding the silkworm tray 5 with the freshest mulberry leaves of the most appropriate size for each silkworm age.

[0030] Table 1: Silkworm tray size and standard amount of mulberry leaves fed to silkworms of different ages

[0031] The table above shows the standard amount of mulberry leaves to feed silkworms of various age groups. Based on this standard, the pulverizing mechanism 1 crushes the mulberry leaves to the appropriate size, which is then sieved by the screening mechanism 3. Finally, the leaf leveling mechanism 4 delivers the appropriate amount of mulberry leaves to the silkworm tray 5's acupuncture points 51, ensuring that the silkworms in acupuncture points 51 receive the leaves of the most appropriate size and quantity. As is well known, mulberry leaves that are too large are unsuitable for silkworms that are too young, making them difficult to consume. Excessive amounts of mulberry leaves can lead to incomplete consumption, and prolonged accumulation can easily cause the leaves to rot and deteriorate, impacting the silkworms' health. Conversely, leaves that are too small are unsuitable for silkworms that are too old, making them difficult to consume. Furthermore, insufficient amounts of mulberry leaves can lead to insufficient consumption, causing the silkworms to starve. This slows the growth of the silkworms and affects their breeding cycle. Therefore, during the breeding process, it is particularly important to match the size and amount of mulberry leaves to feed silkworms of different age groups. The processing equipment of the present invention can solve this problem well and realize mechanical integrated feeding, which not only improves the feeding efficiency, but also maximizes the utilization rate of mulberry leaves through the secondary recovery mechanism of mulberry leaves.

[0032] like Figure 1-12 As shown, an intelligent silkworm breeding leaf leveling processing equipment includes a crushing mechanism 1, a transportation mechanism 2, a screening mechanism 3 and a leaf leveling mechanism 4; the crushing mechanism 1 is configured to adjust the size of the crushed mulberry leaves; the transportation mechanism 2 is configured to transport the mulberry leaves from the crushing mechanism 1 to the screening mechanism 3; the screening mechanism 3 is configured to screen mulberry leaves of appropriate size and transport the screened mulberry leaves to the leaf leveling mechanism 4, and the leaf leveling mechanism 4 is configured to evenly place the mulberry leaves into the silkworm tray 5 and recycle the mulberry leaves not placed into the silkworm tray 5 to the transportation mechanism 2.

[0033] The crushing mechanism 1 is a mechanism for cutting mulberry leaves. The crushing mechanism 1 mainly cuts and processes the mulberry leaves by cutting and crushing. The crushing mechanism 1 is provided with multiple gears to select from, and the size range of mulberry leaves is referred to in Table 1 for cutting. The internal structure of the crushing mechanism 1, that is, how to cut the mulberry leaves of appropriate size, is prior art and is not the subject of protection of the present invention. Therefore, the internal structure of the crushing mechanism 1 will not be described in detail. It should be noted that the mulberry leaves processed by the crushing mechanism 1 of the present invention do not need to reach the size described in Table 1 100%. The present invention is also provided with a screening mechanism 3. The screening mechanism 3 will screen the mulberry leaves processed by the crushing mechanism 1. Only after the screening meets the standards will the mulberry leaves be fed to the silkworms in the silkworm tray 5. In addition, in order to maximize the utilization rate of the mulberry leaves, when the crushing mechanism 1 processes the mulberry leaves, the mulberry leaves are usually cut into larger areas first to be fed to the older silkworms. The mulberry leaves are cut from large to small according to the order in Table 1.

[0034] The crushing mechanism 1 is provided with a discharge port 11, through which the processed mulberry leaves are transported to the transport mechanism 2. The transport mechanism 2 includes a first conveyor belt 21, a second conveyor belt 22, and a third conveyor belt 23. The crushing mechanism 1 is arranged on the side of the first conveyor belt 21 and can transport the crushed mulberry leaves through the discharge port 11 to the first conveyor belt 21, and then transport them to the second conveyor belt 22 through the first conveyor belt 21. Finally, the second conveyor belt 22 transports the mulberry leaves to the third conveyor belt 23, and the third conveyor belt 23 transports the mulberry leaves to the screening mechanism 3. The first conveyor belt 21 includes a first conveyor belt starting end 211 and a first conveyor belt ending end 212; the second conveyor belt 22 includes a second conveyor belt starting end 221 and a second conveyor belt ending end 222; the third conveyor belt 23 includes a third conveyor belt starting end 231, a third conveyor belt ending end 232, and a climbing belt 233. In order to save space, the first conveyor belt 21, the second conveyor belt 22 and the third conveyor belt 23 are arranged in a U-shape, with the first conveyor belt 21 and the third conveyor belt 23 arranged in parallel, and the second conveyor belt 22 arranged perpendicular to the first conveyor belt 21 and / or the third conveyor belt 23; the first conveyor belt 21, the second conveyor belt 22 and the third conveyor belt 23 are arranged in a stepped manner as a whole, that is, the second conveyor belt 22 is located below the terminal end 212 of the first conveyor belt, and the starting end 231 of the third conveyor belt is located below the terminal end 222 of the second conveyor belt. In this way, the mulberry leaves can be transported on the three conveyor belts by naturally falling. When the mulberry leaves are transported to the starting end 231 of the third conveyor belt, due to the certain friction between the mulberry leaves and the conveyor belt, the mulberry leaves are driven by the climbing belt 233 to the terminal end 232 of the third conveyor belt. A funnel 6 is provided at the terminal end of the third conveyor belt 23 , that is, a funnel 6 is provided below the terminal end 232 of the third conveyor belt, and mulberry leaves can fall into the screening mechanism 3 , that is, fall into the screening cover 30 , through the funnel 6 .

[0035] The screening mechanism 3 includes a screening cover 30, a vibration frame 31, a vibration element 32, a vibration motor 33, and a screening frame 34. The vibration frame 31 is connected to the top of the screening cover 30 via the vibration element 32. The screening frame 34 is placed on the vibration frame 31, and the vibration motor 33 can drive the screening frame 34 to vibrate. The vibration element 32 includes a primary vibration component 321 and a secondary vibration component 322 connected to the vibration motor 33. The primary vibration component 321 and the secondary vibration component 322 are evenly distributed on the vibration frame 31. The screening cover 30 is provided with a vibration frame 31 on top, and isolation panels are provided around it. The bottom is hollowed out. The mulberry leaves are vibrated by the vibration frame 31 on the top, so that the mulberry leaves inside the screening frame 34 fall through the sieve holes 343 into the screening cover 30, until they pass through the screening cover 30 and fall onto the leaf averaging mechanism 4. The isolation panels provided around the screening cover 30 can play a protective role, preventing the mulberry leaves from being affected by other external wind forces and floating out of the mechanism during the falling process. In addition, according to different needs, the screening frame 34 has multiple models, that is, the sieve holes 343 of the screening frame 34 are of different sizes, and the sieve holes 343 of different sizes are configured according to the data shown in Table 1. In addition, in order to make the mulberry leaves fall more evenly on the leaf-leveling mechanism 4, the screening frame 34 includes a central placement area 341 and a screening area 342. The screening areas are evenly distributed around the central placement area 341, and the screening area 342 is provided with sieve holes 343 of uniform size. Figure 6 As shown in FIG. 3 , central placement area 341 is a plane, and mulberry leaves first fall into this plane by funnel 6, then by shaking, the mulberry leaves positioned on this plane are slowly diffused outwards, and then fall into screening cover 30 through the sieve holes 343 of peripheral screening area 342. Such design can make mulberry leaves diffuse to all sides and then progressively fall, and can make mulberry leaves fall on leaf averaging mechanism 4 more evenly. Screening area 342 is formed by steel rings evenly spaced, and sieve hole 343 just presents fan-shaped, and this design of sieve hole 343 is more suitable for screening the thin sheet-like object of mulberry leaves. Screening mechanism 3 can control the screening amount of mulberry leaves by controlling vibration frequency and vibration amplitude, thereby ensure that mulberry leaves evenly fall from sieve hole 343, thereby ensure that mulberry leaves can evenly be spread on leaf averaging mechanism 4.

[0036] like Figure 7As shown, the leaf distribution mechanism 4 includes an extended belt line 41 and a silkworm tray acupoint belt line 42. The extended belt line 41 is arranged above the silkworm tray acupoint belt line 42, and the end 410 of the extended belt line 41 can move at a constant speed above the silkworm tray acupoint belt line 42. The silkworm tray acupoint belt line 42 includes an acupoint belt 421 provided with feed holes 420. The number and size of the feed holes 420 match the number and size of the silkworm tray acupoints 51 of the silkworm tray 5. Mulberry leaves fall onto the silkworm tray acupoint belt line 42 via the extended belt line 41. The silkworm tray 5 is arranged below the silkworm tray acupoint belt line 42. The feed holes 420 are located just above the silkworm tray acupoints 51, so that the mulberry leaves can fall into the silkworm tray acupoints 51 for consumption by the silkworms.

[0037] In order to ensure that the mulberry leaves can fall evenly into the silkworm tray acupuncture points 51, the first step is to evenly spread the mulberry leaves on the extended belt line 41 through the screening mechanism 3. At the same time, starting the uniform movement and uniform rolling of the extended belt 413 is the second step to ensure that the mulberry leaves can fall evenly into the silkworm tray acupuncture points 51. The extended belt line 41 includes a moving part 411, a rolling part 412 and an extended belt 413. The moving part 411 is configured to enable the extended belt 413 to move evenly toward or away from the silkworm tray acupuncture point belt line 42 in the horizontal direction; the rolling part 412 is configured to enable the extended belt 413 to be uniformly transmitted on the first roller 431. The moving part 411 and the rolling part 412 act on the extended belt 413 at the same time, that is, the extended belt 413 is uniformly rotated while being uniformly translated. The uniform movement can be achieved by controlling the servo motor.

[0038] Specifically, the moving component 411 includes a moving member 414, a moving rod 415, and a slider 416. The slider 416 is sleeved on the moving rod 415. The moving member 414 is L-shaped. One end of the moving member 414 is provided with a first roller 431. The extended belt 413 is wound around this first roller 431. The other end of the moving member 414 is fixed to the slider 416. The slider 416 can move horizontally and at a uniform speed along the moving rod 415. The slider 416 moves back and forth horizontally on the moving rod 415 to achieve the horizontal movement of the extended belt 413 driven by the first roller 431. The rolling member then realizes the uniform speed of the extended belt 413 and the elasticity of the extended belt 413.

[0039] The rolling component 412 includes a first roller 431, a second roller 432, a third roller 433, a fourth roller 434 and a fifth roller 435, wherein the first roller 431 is fixed on the moving part 414 and can therefore move with the horizontal movement of the moving part 414. The third roller 433, the fourth roller 434 and the fifth roller 435 are all fixed on the frame, and the second roller 432 can move horizontally along with the frame. The five rollers, namely the first roller 431, the second roller 432, the third roller 433, the fourth roller 434 and the fifth roller 435, rotate simultaneously, thereby ensuring that the extended belt 413 always rotates at a uniform speed, that is, the extended belt 413 always transports mulberry leaves in one direction. The first roller 431 and the second roller 432 are able to move horizontally at the same time, thereby realizing the telescopic function of the extended belt 413. Figure 9-11 As shown, the first roller 431 and the second roller 432 simultaneously move to the left, and the extended belt 413 extends outward. The first roller 431 and the second roller 432 simultaneously move to the right, and the extended belt 413 retracts inward. During the extension and / or contraction process of the extended belt 413, the extended belt 413 also rotates. The extension and / or contraction process is all above the silkworm tray acupoint belt line 42. During the extension, contraction and rotation process, the mulberry leaves dropped from the end of the extended belt 413 onto the silkworm tray acupoint belt line 42 are very evenly distributed on the silkworm tray acupoint belt line 42, so that the mulberry leaves dropped from the feeding hole 420 of the silkworm tray acupoint belt line 42 into the silkworm tray 5 are also very evenly distributed.

[0040] The silkworm tray acupoint belt line 42 also includes an acupoint belt support 423. A sixth roller 424 is mounted on the acupoint belt support 423. The acupoint belt 421 is mounted on the sixth roller 424. The sixth roller 424 drives the acupoint belt 421 to the conveyor mechanism 2. The silkworm tray acupoint belt line 42 is provided with a feed hole 420. The size of the feed hole 420 matches the size of the silkworm tray acupoint 51. During the feeding process, the position of the feed hole 420 corresponds to the silkworm tray acupoint 51. After one silkworm tray 5 is fed, the uniform motion of the conveyor belt can also be used to move two adjacent silkworm trays 5. In addition, to improve the utilization rate of mulberry leaves, the acupoint belt 421 can be fixed by the rotation of the sixth roller 424. The silkworm tray acupoint belt line 42 is located near the starting end 211 of the first conveyor belt, and mulberry leaves remaining on the acupoint belt 421 can be transported to the starting end 211 of the first conveyor belt, thereby achieving the purpose of secondary recycling. The crushing mechanism 1 also includes an absorption component, which can absorb the mulberry leaves on the first conveyor belt 21 into the crushing mechanism 1 for secondary crushing, thereby maximizing the utilization rate of the mulberry leaves and reducing the cost of raising silkworms. The absorption component can be independently controlled, and whether to turn on the absorption component can be selected based on the actual size of the mulberry leaves and the size of the mulberry leaves returned to the first conveyor belt 21. If the size of the mulberry leaves returned to the first conveyor belt 21 is suitable for feeding the silkworms, there is no need to start the absorption component. If the mulberry leaves returned to the first conveyor belt 21 are too large, the absorption component can be started to crush the mulberry leaves for the second time before transmitting them through the first conveyor belt 21.

[0041] Obviously, the embodiments described are only some of the embodiments of the present invention, not all of them. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts should fall within the scope of protection of the present invention.

Claims

1. An intelligent silkworm breeding leaf processing equipment, characterized by: The invention comprises a crushing mechanism (1), a transport mechanism (2), a screening mechanism (3) and a leaf leveling mechanism (4); the crushing mechanism (1) is configured to adjust the size of crushed mulberry leaves; the transport mechanism (2) is configured to transport the mulberry leaves from the crushing mechanism (1) to the screening mechanism (3); the screening mechanism (3) is configured to screen mulberry leaves of appropriate size and transport the screened mulberry leaves to the leaf leveling mechanism (4); the leaf leveling mechanism (4) is configured to evenly place the mulberry leaves on the silkworm tray (5) and recycle the mulberry leaves not placed on the silkworm tray (5) back to the transport mechanism (2).

2. The intelligent silkworm breeding leaf leveling processing equipment according to claim 1, characterized in that: The leaf-evening mechanism (4) comprises an extended belt line (41) and a silkworm tray acupoint belt line (42); the extended belt line (41) is arranged above the silkworm tray acupoint belt line (42), and the end (410) of the extended belt line (41) can move at a uniform speed above the silkworm tray acupoint belt line (42); the silkworm tray acupoint belt line (42) comprises an acupoint belt (421) provided with a feeding hole (420); the number and size of the feeding hole (420) match the number and size of the silkworm tray acupoints (51) of the silkworm tray (5).

3. The intelligent silkworm breeding leaf leveling processing equipment according to claim 2, characterized in that: The extended belt line (41) comprises a moving part (411), a rolling part (412) and an extended belt (413), wherein the moving part (411) is configured to enable the extended belt (413) to move at a uniform speed toward or away from the silkworm plate acupuncture point belt line (42) in a horizontal direction; and the rolling part (412) is configured to enable the extended belt (413) to be transmitted at a uniform speed on the first roller (431) and to control the extension length of the extended belt (413).

4. The intelligent silkworm breeding leaf leveling processing equipment according to claim 2, characterized in that: The silkworm plate acupoint belt line (42) further includes an acupoint belt bracket (423), a sixth roller (424) is arranged on the acupoint belt bracket (423), and the acupoint belt (421) is installed on the sixth roller (424). The sixth roller (424) can drive the acupoint belt (421) to transmit to the transport mechanism (2).

5. The intelligent silkworm breeding leaf leveling processing equipment according to claim 1, characterized in that: The screening mechanism (3) comprises a screening cover (30), a vibration frame (31), a vibration member (32), a vibration motor (33) and a screening frame (34). The vibration frame (31) is connected to the top of the screening cover (30) through the vibration member (32). The screening frame (34) is placed on the vibration frame (31). The vibration motor (33) can drive the screening frame (34) to vibrate.

6. The intelligent silkworm breeding leaf leveling processing equipment according to claim 5, characterized in that: The vibration member (32) includes a main vibration component (321) and a secondary vibration component (322) connected to the vibration motor (33), and the main vibration component (321) and the secondary vibration component (322) are both arranged on the vibration frame (31).

7. The intelligent silkworm breeding leaf leveling processing equipment according to claim 5, characterized in that: The screening frame (34) includes a central placement area (341) and a screening area (342). The screening areas are evenly distributed around the central placement area (341). The screening area (342) is provided with sieve holes (343) of uniform size.

8. The intelligent silkworm breeding leaf leveling processing equipment according to claim 1, characterized in that: The transport mechanism (2) comprises a first conveyor belt (21), a second conveyor belt (22) and a third conveyor belt (23); the crushing mechanism (1) is arranged on the side of the first conveyor belt (21) and can transport the crushed mulberry leaves to the first conveyor belt (21); and the third conveyor belt (23) transports the mulberry leaves to the screening mechanism (3).

9. The intelligent silkworm breeding leaf leveling processing equipment according to claim 7, characterized in that: The pulverizing mechanism (1) further comprises an absorbing component, which is capable of sucking the mulberry leaves on the first conveyor belt (21) into the pulverizing mechanism (1) for secondary pulverization.

10. The intelligent silkworm breeding leaf leveling processing equipment according to claim 7, characterized in that: The terminal end of the third conveyor belt (23) is provided with a funnel (6), and the mulberry leaves can fall into the screening cover (30) through the funnel (6).

Images