Vegetable quick cutting and clean collecting integrated machine

Abstract

This invention relates to the field of agricultural machinery technology, specifically to an integrated machine for rapid cutting, cleaning, and collecting vegetables. It includes a frame body, a reciprocating cutting assembly mounted at the front of the frame, a transport assembly located at the rear of the reciprocating cutting assembly and fixed above the frame, and a cleaning assembly mounted at the end of the frame for cleaning the cut vegetables. By integrating multiple processes such as cutting, transporting, cleaning, and collecting into a single device and achieving automated collaborative work among the components, the originally scattered and high-intensity manual operation process is transformed into continuous and efficient mechanized operation. This integrated and automated processing method not only significantly reduces the user's labor intensity and shortens operation time, but also comprehensively improves the cleanliness and standardized processing level of leafy vegetables through technologies such as electrolytic sterilization, providing effective technical support for the large-scale and standardized processing of leafy vegetables.

Description

Technical Field

[0001] This invention relates to the field of agricultural machinery technology, specifically to an integrated machine for rapid vegetable cutting, cleaning, and collection. Background Technology

[0002] In the harvesting and post-processing of leafy vegetables, farmers have long faced severe constraints from manual labor. Current operations rely entirely on manual labor, requiring farmers to repeatedly perform high-intensity, repetitive tasks such as bending over to pull vegetables, manually cutting roots, washing each vegetable for dirt and debris, bundling and transporting them in baskets. This traditional method results in extremely low cutting efficiency, limiting the daily processing area per person and making it difficult to meet the demands of large-scale production. The washing process is also extremely labor-intensive, requiring farmers to soak in cold water for extended periods, easily leading to joint strain and occupational health problems. Hygiene is difficult to guarantee effectively; manual washing cannot thoroughly remove pathogens and pesticide residues from the vegetable surface, posing food safety risks. The processes are fragmented and cumbersome, with cutting, washing, draining, and collecting steps operating independently, requiring multiple material handling operations, resulting in wasted time and damage to vegetables. Especially during the peak sales period from 2:00 AM to 5:00 AM, farmers are forced to work under extreme conditions, placing a heavy burden on their physical and mental health. Existing equipment fails to organically integrate cutting, washing, and collecting functions, and lacks adaptive design for complex field environments, resulting in low operational efficiency, low vegetable marketability, and an inability to effectively solve the standardization and simplification problems in the post-harvest processing of leafy vegetables. Summary of the Invention

[0003] To address the above shortcomings, this invention provides an integrated machine for quick cutting, cleaning, and collecting vegetables, which can solve the problems of scattered and cumbersome processes in the harvesting and post-processing of leafy vegetables, where the cutting, washing, draining, and collecting steps are disconnected from each other, requiring multiple material handling, resulting in wasted time and damage to vegetables.

[0004] To achieve the above objectives, the present invention adopts the following technical solution: A vegetable quick-cutting, cleaning and collection integrated machine includes a frame, and the bottom of the frame is provided with a drive device to facilitate the movement of the frame. Specifically, the frame is provided with a reciprocating cutting component, a transport component and a cleaning component. The reciprocating cutting assembly is installed at the front end of the frame, the cleaning assembly is installed at the rear end of the frame, and the transport assembly includes a hoist, a first drain frame, and a second drain frame. The input end of the hoist is attached to the reciprocating cutting assembly, and its output end is located above the cleaning assembly. The transport assembly also includes a first guide slide and a second guide slide. The hoist is connected to the first drain frame through the first guide slide, and the first drain frame is connected to the second drain frame through the second guide slide. The cleaning assembly includes a water tank, an electrolytic plate, and a tilting component; The bucket is located below the output end of the elevator. The outer periphery of the first drain frame is adapted to and snapped into the inner peripheral wall of the bucket opening. One end of the flipping component is fixedly installed on the frame, and the other end is connected to both sides of the outer periphery of the first drain frame. The flipping component drives the first drain frame to flip up and down inside the bucket by rotating. Multiple electrolytic plates are arranged around the inner wall of the water tank and electrically connected to the frame to electrolyze and sterilize the water in the tank.

[0005] Preferably, the cleaning assembly includes a pulsator and a blue light module; The impeller includes a drive motor and an impeller disc. The drive motor is installed inside the frame, and its output end passes through the center point of the end face of the water bucket. The center of the impeller disc is fixedly connected to the output end of the drive motor. The impeller disc is an inverted arc-shaped cover with a hollow cavity inside. The cover wall of the impeller disc is hollowed out. The outer surface of the impeller disc has protrusions. The protrusions are arranged in a circumferential array along the impeller disc and protrude outward from the outer surface of the impeller disc. The blue light module is installed at the end of the first guide slide facing the water bucket and is electrically connected to the frame to reduce the pathogenic bacteria that vegetables bring into the washing water bucket and attach to the surface.

[0006] Preferably, the number of impeller components is 2 to 4, with one impeller component axially located at the center of the bottom of the bucket, and the remaining impeller components radially symmetrically installed on the lower half of the side wall of the bucket. The rotation direction of the impeller located at the bottom of the bucket is offset from that of the impeller on the side wall of the bucket, and the rotation directions of the impellers between the side walls are also staggered.

[0007] Preferably, the lower end face of the inner wall of the water tank is provided with an installation groove corresponding to the number of electrolytic plates. The electrolytic plates are provided with through holes at corresponding positions on both sides and in the installation groove. The electrolytic plates are fixed in the installation groove by bolts through the through holes. The bottom of the installation groove is provided with a wire hole through which the terminal of the electrolytic plate passes. The wire hole is connected to the inside of the frame. The terminal of the electrolytic plate passes through the wire hole and is electrically connected to the frame. The electrolytic plate has a sheet-like structure. Its outer surface is bent to one side after being wire-cut to form multiple fin-like protrusions that are spaced apart along the length direction. The distance between adjacent fin-like protrusions is 2-5 mm.

[0008] Preferably, the blue light module includes a mounting base, a transparent protective shell, and LED blue light beads. A plurality of LED blue light beads are fixed at intervals along the width direction of the first guide groove on the surface of the mounting base facing the discharge end of the first guide groove. The transparent protective shell is sealed and fastened to the outside of the mounting base, and the surface of the transparent protective shell is treated with hydrophobic and anti-fogging properties. An angle adjustment bracket is provided between the mounting base and the outer wall of the first guide slide to adjust the illumination angle of the LED blue light beads.

[0009] Preferably, the transport component is hollowed out on all four sides.

[0010] Preferably, the reciprocating cutting assembly includes a fixing base and a cutting element; The rear end of the fixed base is provided with a slider, and the front end of the frame is provided with a corresponding slide groove. The opening direction of the slide groove is perpendicular to the ground. The fixed base is slidably connected to the slide groove through the slider. The two sides of the front end of the frame are provided with electric push rods corresponding to the opening direction of the slide groove. The output end of the electric push rod is connected to the side of the fixed base. The lower end face of the fixed base is provided with an infrared distance sensor for detecting the distance between the lower end of the fixed base and the ground. The cutting part is installed in the fixed base.

[0011] Preferably, the cutting component includes a cutting blade, a reduction motor, and a butterfly-shaped eccentric block; The fixed base has a cavity that communicates with the outside, and multiple through holes are formed along its length. Two cutting blades are slidably installed in the cavity. The cutting blades have grooves along their length that correspond to the number of through holes on the fixed base. The fixed base is connected to the cutting blades by bolts passing through the through holes and grooves. The geared motor is vertically mounted on one side of the fixed base, and its output end is fixedly connected to the center of the butterfly-shaped eccentric block. The cutting blade has a serrated edge, and a rectangular groove is provided at one end near the geared motor. The length of the rectangular groove is greater than twice the eccentric radius of the butterfly eccentric block, and the two ends of the butterfly eccentric block are respectively embedded in the adjacent rectangular groove. The butterfly-shaped eccentric block is made up of two eccentric blocks stacked together and fixed by fitting them through the central shaft hole, and the eccentric directions of the two eccentric blocks are arranged in a 180° mirror image.

[0012] Preferably, the flipping component includes a drive rod, a connecting rod, a rocker arm, and a mounting bracket; The mounting bracket is fixed to the outside of the frame. One end of the active rod is rotatably connected to the mounting bracket, and its middle part is rotatably connected to one end of the connecting rod. The other end of the connecting rod is rotatably connected to the middle part of the rocker arm. One end of the rocker arm is rotatably connected to the frame, and the other end is provided with an extension. The extension is axial in shape, and a C-shaped fastener is slidably mounted on the extension. The edge of the first drain frame is provided with an arc-shaped skirt. The extension is placed below the arc-shaped skirt. The open end of the C-shaped fastener simultaneously engages the outer circumferential surface of the extension and the outer circumferential surface of the arc-shaped skirt. The C-shaped fastener, the extension, and the arc-shaped skirt are provided with corresponding through holes. The system also includes a bolt that passes through the through hole and a nut that engages with the bolt for locking, in order to fix the extension, the first drain frame, and the C-shaped fastener together. The frame is equipped with a power component, and the output end of the power component is connected to the middle of the drive rod.

[0013] Preferably, the power component can be any one of an electric push rod, a pneumatic cylinder, and a hydraulic cylinder, with its cylinder body bottom end hinged to the frame and its output rod head hinged to the end of the drive rod away from the mounting frame.

[0014] Compared with the prior art, the beneficial effects of the present invention are: 1. This invention integrates cutting, washing, draining, and collecting processes into one unit. The entire machine can be directly moved to the field for operation, eliminating the need for multiple handling of vegetables, reducing operational steps, effectively lowering labor intensity, saving operating time, and avoiding damage to vegetables during handling. It can quickly complete post-harvest processing during the prime sales period in the early morning, adapting to the needs of large-scale leafy vegetable production. The reciprocating cutting component can adaptively adjust the cutting height, completing the cutting operation close to the ground, with stable cutting efficiency, significantly improving processing speed compared to manual cutting; 2. This invention uses a reciprocating cutting component, which uses a butterfly-shaped eccentric block to drive two cutting blades to reciprocate in opposite directions. The serrated blades can quickly and neatly cut the roots of vegetables. With the sliding and adjustable cutting blade mounting structure, the extension length of the blades can be flexibly adjusted according to the operation requirements to adapt to the cutting requirements of different types of leafy vegetables. The infrared ranging sensor and electric push rod can automatically adjust the height of the fixed base to ensure that the cutting position is always close to the ground, avoiding the waste of vegetable leaves due to the cutting position being too high or the stirring up of soil and impurities due to the cutting position being too low, thus ensuring the cleanliness of the cut vegetables. 3. By setting up transport and cleaning components, this invention can automatically transport vegetables to a cleaning water tank after cutting using a frame control system to complete electrolytic sterilization and cleaning. In conjunction with a blue light module, it can further reduce the content of pathogenic bacteria on the surface of vegetables. The multi-directional rotating impeller can drive the water flow to form complex turbulence, which can fully impact the surface of vegetables and wash off the attached dirt and debris. At the same time, electrolytic water sterilization can effectively remove pesticide residues without the need to add chemical cleaning agents, thus improving the safety of vegetables for consumption. Attached Figure Description

[0015] To more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings used in the description of the embodiments will be briefly introduced below.

[0016] Figure 1 This is a schematic diagram of the overall structure of the vegetable quick-cutting, cleaning and collection integrated machine of the present invention; Figure 2 This is a schematic diagram of the overall internal structure of the vegetable quick-cutting, cleaning and collecting integrated machine of the present invention; Figure 3 This is a schematic diagram of the overall structure of the reciprocating cutting component in the vegetable quick-cutting, cleaning and collecting integrated machine of the present invention; Figure 4 This is a partial structural diagram of the cleaning component; Figure 5 This is a schematic diagram of the internal structure of the water tank in the cleaning assembly; Figure 6 This is an exploded view of the overall structure of the impeller component in the cleaning assembly; Figure 7 This is a schematic diagram showing the relative positions of the flip-up component, the Blu-ray module, and the first drain frame; Figure 8 This is a schematic diagram showing the relative positions of the flip-up component, the Blu-ray module, and the first drain frame from another perspective; Figure 9 A simplified diagram showing the connection relationships of the flip-up components; Figure 10 A simplified diagram illustrating the state of the vegetables in the first draining frame when they are being poured out. Figure 11 This is a schematic diagram of the overall structure of the cutting component.

[0017] Illustration: 1. Frame; 101. Hand handle; 102. Drive control module; 103. Placement part; 2. Drive device; 3. Reciprocating cutting assembly; 301. Fixing base; 302. Cutting piece; 3021. Cutting blade; 3022. Gear motor; 3023. Butterfly-shaped eccentric block; 3024. Cavity; 3025. Through hole; 3026. Guide groove; 3027. Rectangular groove; 303. Slider; 304. Slide; 305. Electric push rod; 306. Infrared ranging sensor; 4. Transport assembly; 401. Hoist; 402. First drain frame; 4021. Arc-shaped side skirt; 403. Second drain frame; 404. First guide slide; 405. Second guide slide ; 406, baffle; 5, cleaning assembly; 501, water tank; 5011, mounting slot; 5012, wire hole; 502, electrolytic plate; 5021, fin-shaped protrusion; 503, flipping component; 5031, drive rod; 5032, connecting rod; 5033, rocker arm; 5034, mounting bracket; 5035, extension part; 5036, C-shaped fastener; 5037, power component; 504, impeller component; 5041, drive motor; 5042, impeller disc; 5043, protrusion; 505, blue light module; 5051, mounting base; 5052, transparent protective shell; 5053, LED blue light bulb; 5054, angle adjustment bracket; 6, water replenishment and circulation system; 61, water outlet. Detailed Implementation

[0018] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0019] In the description of this invention, it should be noted that the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this invention.

[0020] In the description of this invention, it should be noted that, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "linking" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal connection of two components. Those skilled in the art can understand the specific meaning of the above terms in this invention based on the specific circumstances. Furthermore, the technical features involved in the different embodiments of this invention described below can be combined with each other as long as they do not conflict with each other.

[0021] Please see Figures 1 to 11 A preferred embodiment of the present invention provides a vegetable quick-cutting, cleaning and collection integrated machine, which mainly includes a frame 1, a drive device 2, a reciprocating cutting component 3, a transport component 4 and a cleaning component 5.

[0022] The reciprocating cutting assembly 3 is installed at the front end of the frame 1, and the cleaning assembly 5 is installed at the rear end of the frame 1.

[0023] The frame 1 serves as the skeleton structure of the entire vegetable quick-cutting, cleaning, and collection integrated machine, supporting and fixing all functional components to ensure the structural stability and load-bearing capacity of the equipment during operation. It is constructed from standard profiles such as square tubes, connected by welding or bolts, and its structural strength is sufficient to support the weight of all components and the dynamic load during operation. It is also equipped with a push handle 101 and a drive control module 102, which allows operators to control the equipment's speed and operating status on-site and flexibly adjust the operating parameters according to the actual field conditions.

[0024] The drive unit 2 is installed at the bottom of the frame 1 and adopts a wheeled walking structure combined with a battery-powered drive motor. This allows the entire machine to move autonomously on soft ground in the field without manual dragging, further reducing the physical exertion of workers and enabling continuous harvesting of leafy vegetables. Specifically, in this preferred embodiment, the internal structure of the frame 1 includes components such as a DC geared motor, a power supply, and a controller. These components work together to form a complete drive system. The DC geared motor serves as the power source, transmitting power to a pair of fixed wheels, thereby propelling the integrated machine electrically in a straight line.

[0025] like Figures 1 to 3 and Figure 11As shown, the reciprocating cutting assembly 3 is installed at the front end of the frame 1 to cut the roots of vegetables. It includes a fixed base 301 and a cutting component 302. The fixed base 301 serves as the supporting structure for the reciprocating cutting assembly 3, and its main function is to support the cutting component 302 and the connection mechanism with the frame 1. The fixed base 301 is made of high-strength steel to ensure stability during the cutting process. A slider 303 is provided at the rear end of the fixed base 301, and a corresponding groove 304 is provided at the front end of the frame 1. The groove 304 is perpendicular to the ground. The fixed base 301 is slidably connected to the groove 304 through the slider 303. The slider 303 and the groove 304 cooperate to provide the fixed base 301 with vertical freedom of movement. The groove 304 is a guide structure that cooperates with the slider 303 to limit the movement direction of the slider 303 and ensure that the fixed base 301 moves up and down along a preset vertical path. Electric actuators 305, corresponding to the opening direction of the slide groove 304, are provided on both sides of the front end of the frame 1. The output end of the electric actuator 305 is connected to the side of the fixed base 301. The electric actuator 305 is a linear reciprocating motion actuator used to drive the fixed base 301 to move up and down within the slide groove 304, thereby adjusting the cutting height. An infrared distance sensor 306 is provided on the lower end face of the fixed base 301 to detect the distance between the lower end of the fixed base 301 and the ground. The infrared distance sensor 306 is a non-contact distance measuring device that calculates the distance to the target object by emitting infrared light and receiving reflected light. It can be a sensor based on the triangulation principle. In this application, it is used to monitor the distance between the lower end face of the fixed base 301 and the ground in real time, providing feedback signals for the automatic adjustment of the cutting height.

[0026] When the machine moves through the field and encounters uneven terrain, the infrared distance sensor 306 immediately detects the change in distance from the ground and feeds this information back to the control system. The control system compares the preset cutting height target value with the real-time distance fed back by the sensor. Once a deviation is detected, it instructs the electric actuator 305 to extend or retract accordingly, thereby causing the fixed base 301 to slide up and down within the slide groove 304, adjusting the height of the cutting component 302 in real time. Through this closed-loop feedback control mechanism, regardless of the unevenness of the ground, the cutting component 302 can dynamically maintain a constant cutting height from the ground, ensuring the accuracy and consistency of the cut. This design allows the reciprocating cutting component 3 to move independently of the overall frame 1, achieving adaptive contour cutting to the terrain, thus effectively avoiding the problem of cutting too deep or too shallow, and significantly improving the harvesting quality and efficiency of vegetables.

[0027] The cutting component 302 is installed within the fixed base 301. The cutting component 302 is the part that directly contacts the vegetables and performs the cutting function. The cutting component 302 includes two serrated cutting blades 3021 as a set, which separate the vegetable roots through reciprocating motion. It also includes a geared motor 3022 and a butterfly-shaped eccentric block 3023. The fixed base 301 has a cavity 3024 communicating with the outside and multiple through holes along its length. The surface of the cavity 3024 is precision-machined to ensure minimal frictional resistance when the cutting blades 3021 slide within it. Two cutting blades 3021 are slidably installed within the cavity 3024, and each cutting blade 3021 has guide grooves 3026 along its length corresponding to the number of through holes on the fixed base 301. The mounting base 301 is connected to the cutting blade 3021 by bolts passing through the through hole and guide groove 3026. The cutting blade 3021 can be made of SK85 high-grade carbon tool steel, and its cutting surface is laser-cut to form fine serrations to improve cutting sharpness. The guide groove 3026 opened along the length of each cutting blade 3021 allows the mounting bolt to slide relative to each other in the groove, providing displacement space for the reciprocating motion of the cutting blade 3021. The bolts are locked and fixed to the through hole of the mounting base 301, which also realizes the sliding constraint between the cutting blade 3021 and the mounting base 301, ensuring the freedom of movement and preventing the cutting blade 3021 from deviating from the predetermined movement trajectory during operation. The geared motor 3022 is vertically mounted on one side of the fixed base 301, and its output end is fixedly connected to the center of the butterfly-shaped eccentric block 3023. The geared motor 3022 is a 24V DC geared motor and is electrically connected to the power supply and controller inside the frame 1. Its output shaft is firmly fixed to the central shaft hole of the butterfly-shaped eccentric block 3023 by a key connection. The cutting blade 3021 has a serrated cutting edge, and a rectangular groove 3027 is formed at one end near the geared motor 3022. The length of the rectangular groove 3027 is more than twice the eccentric radius of the butterfly-shaped eccentric block 3023. The two ends of the butterfly-shaped eccentric block 3023 are respectively embedded in the adjacent rectangular grooves 3027. The butterfly-shaped eccentric block 3023 is made up of two eccentric blocks stacked together and fixed through the central shaft hole. The eccentric directions of the two eccentric blocks are arranged in a 180° mirror image. In this preferred embodiment, the butterfly-shaped eccentric block 3023 is made up of two independent eccentric blocks stacked together through the central shaft hole and then fixed by a positioning pin and a nut to ensure that the eccentric directions of the two eccentric blocks are precisely arranged in a 180° mirror image.

[0028] Specifically, when the eccentric point of one eccentric block points directly upwards, the eccentric point of the other eccentric disc points directly downwards. When the geared motor 3022 starts and drives the butterfly-shaped eccentric block 3023 to rotate, its two ends will respectively push the rectangular grooves 3027 on the two cutting blades 3021. For example, when the first cutting blade 3021 moves to the left, the second cutting blade 3021 moves to the right, forming an alternating cutting action. The length of the rectangular groove 3027 is designed to accommodate the range of motion of the eccentric block at its maximum eccentric position. For example, if the eccentric radius is 5mm, the length of the rectangular groove 3027 can be designed to be 12mm to ensure that the blade can be effectively driven by the eccentric block throughout the entire stroke without jamming. This staggered linear reciprocating motion allows the cutting blade 3021 to efficiently and smoothly cut the vegetable roots, avoiding the problems of vegetable entanglement and incomplete cutting common in traditional cutting methods.

[0029] like Figure 1 , Figure 2 , Figure 4 , Figure 7 and Figure 8 As shown, the transport component 4 includes a lift 401, a first drain frame 402, a second drain frame 403, a first guide slide 404, and a second guide slide 405. The lift 401 is mounted on the frame 1, with its input end abutting the reciprocating cutting component 3 and its output end located above the washing component 5. The transport component 4 also includes the first guide slide 404 and the second guide slide 405. The lift 401 is connected to the first drain frame 402 via the first guide slide 404, and the first drain frame 402 is connected to the second drain frame 403 via the second guide slide 405. When the cut vegetables are transported by the lift 401, the soil and water carried on their surface are naturally discharged downwards through its perforated structure as the lift 401 moves. Subsequently, the vegetables enter the first drain frame 402 through the first guide slide 404, where they continue to undergo preliminary drainage and soil separation. The perforated design of the first drain frame 402 further promotes the discharge of water and soil. Next, the vegetables enter the second draining frame 403 through the second guide chute 405, where they are drained again using the perforated structure. This continuous perforated design ensures that the soil and moisture attached to the vegetables are continuously and effectively separated and discharged throughout the transportation process, thereby significantly reducing the total amount of impurities entering the washing assembly 5. In this way, the transport assembly 4 not only completes the task of transporting vegetables but also performs a preliminary purification function, reducing the burden on the subsequent washing process and improving the overall processing efficiency and the cleanliness of the vegetables.

[0030] As a specific implementation method, the perforated design around the transport component 4 can be manifested as follows: the conveyor belt of the elevator 401 is made of stainless steel perforated mesh belt, and the elevator 401 is inclined at an angle of 30°. This mesh belt is made of corrosion-resistant stainless steel, and its surface is evenly distributed with appropriately sized holes or grids, which can both support vegetables and allow mud and water to pass through smoothly. The outer surface of the conveyor belt of the elevator 401 is equipped with multiple baffles 406 corresponding to the width of the conveyor belt, with a spacing of 1 meter between the baffles 406. The baffles 406 are made of the same corrosion-resistant stainless steel as the conveyor belt, with a height of 8-10 cm, and are set perpendicular to the surface of the conveyor belt. This design can effectively prevent vegetables from sliding down the conveyor belt of the elevator 401 due to gravity during the 30° inclined transport process, ensuring that the vegetables are transported forward stably; at the same time, the 1-meter spacing is neither too dense, which would hinder the discharge of mud and water through the perforated mesh belt, nor too sparse, which would cause multiple vegetables to pile up and be squeezed, ensuring the efficiency of drainage and soil separation. Since the drive unit 2 is located below the elevator 401, a water guide plate 104 is provided on the frame 1, which is at the same tilt angle as the elevator 401 and covers the drive unit 2. The water guide plate 104 is located between the elevator 401 and the drive unit 2, thereby preventing mud and water dripping from the hollow structure of the elevator 401 from directly contacting the core components of the drive unit, such as the motor and circuit. This effectively avoids short circuits or mechanical corrosion caused by mud and water erosion, ensuring the stable operation and service life of the drive system. The bottom and side walls of the first drain frame 402, the second drain frame 403, the first guide slide 404, and the second guide slide 405 all adopt a mesh structure, such as a mesh plate made of plastic or stainless steel, or have dense drainage holes on the frame. When the cut vegetables are transported by the elevator 401, the mud and water attached to the vegetables will immediately drip off through the holes of the stainless steel hollow mesh belt. Subsequently, when the vegetables enter the first draining frame 402, the mesh structure of the frame further promotes the discharge of residual water and dirt, ensuring that the vegetables have undergone sufficient preliminary draining and cleaning before entering the washing component 5. The vegetables then pour out of the washing component 5 and fall into the second draining frame 403 via the inclined buffer of the second guide slide 405, completing the collection of the vegetables. Similar to the first draining frame 402, it continuously drains residual water, further improving the cleanliness of the collected vegetables and reducing the risk of spoilage during subsequent storage and transportation. The feeding end of the first draining frame 402 is equipped with an arc-shaped side skirt 4021, which can prevent vegetables from getting stuck at the corners of the frame during feeding, ensuring smooth and unobstructed feeding.

[0031] Through the aforementioned technical solution, the perforated design around the transport component 4 during vegetable transport allows for the timely and effective removal of dirt and moisture from the vegetable surface. This significantly reduces the impurity load entering the washing component 5, preventing inefficiency and water waste caused by excessive dirt in the washing process. Simultaneously, the vegetables undergo preliminary purification before entering the washing stage, improving the hygienic quality of the final product. This design optimizes the smoothness and coordination of the entire processing flow, ensuring a more efficient and cleaner transition from cutting to washing.

[0032] Multiple electrolytic plates 502 are arranged around the inner wall of the water tank 501 and electrically connected to the frame 1.

[0033] like Figures 1 to 10 As shown, the cleaning assembly 5 is installed at the rear end of the frame 1. The cleaning assembly 5 includes a water tank 501, an electrolytic plate 502, and a flipping component 503. The water bucket 501 is located below the output end of the elevator 401 and contains water. As per existing technology, the bottom of the water bucket 501 is designed with a special water replenishment and circulation system 6. This system effectively replenishes water from the bottom, creating a continuous circulation process. Specifically, the inlet of the circulation system is located at the bottom of the water bucket 501, connected to an external water supply device via a pipe. The outlet 61 is located on the side wall of the water bucket 501 near the top, allowing overflowing muddy water to flow out, achieving dynamic water renewal. This promptly removes mud and impurities shed during the cleaning process, maintaining the cleanliness of the water inside the bucket, extending the water change cycle, and conserving water resources. Through this design, the water inside the water bucket 501 remains flowing, preventing water stagnation and ensuring the freshness and efficiency of water resources. This water replenishment and circulation mechanism not only enhances the functionality of the water bucket 501 but also brings more convenience to users' daily use. The outer periphery of the first drain frame 402 is fitted and snapped into the inner periphery of the bucket 501. The fitting and snapping are achieved by gravity placement and a simple snap-fit ​​structure on the outer periphery, ensuring that the first drain frame 402 can be stably fixed when it is above or partially immersed in the bucket 501. One end of the flipping part 503 is fixedly installed on the frame 1, and the other end is connected to both sides of the outer periphery of the first drain frame 402. The flipping part 503 drives the first drain frame 402 to flip up and down inside the bucket 501 by rotation. Multiple electrolytic plates 502 are arranged around the inner wall of the water tank 501 and electrically connected to the frame 1 for electrolytic sterilization of the water inside the tank. These electrolytic plates 502 are made of samarium platinum and generate trace amounts of hypochlorous acid and hydroxyl radicals in the water through electrolysis. These effectively kill harmful bacteria and microorganisms attached to the surface of vegetables, while also degrading some residual pesticides, thus improving the safety of vegetables for consumption after washing. The electrolytic plates 502 are fixed to multiple locations on the inner wall of the water tank 501 by screws or adhesives and are connected to a power module inside the frame 1 via wires. When the power is on, the electrolytic plates 502 electrolyze the water in the water tank 501, generating active substances with bactericidal effects, thereby purifying the washing water and improving the hygiene standards of leafy vegetables.

[0034] The cleaning assembly 5 also includes a pulsator 504 and a blue light module 505. The pulsator 504 is a component that generates water flow through rotation to achieve physical cleaning, while the blue light module 505 is a device that emits blue light of a specific wavelength. Blue light has a certain bactericidal effect and can destroy the cell structure of microorganisms or inhibit their growth.

[0035] The impeller component 504 includes a drive motor 5041 and an impeller disc 5042. The drive motor 5041 is installed inside the frame 1, and its output end passes through the center point of the end face of the water tank 501 after passing through a shaft seal. The center of the impeller disc 5042 is fixedly connected to the output end of the drive motor 5041. The impeller disc 5042 is an inverted arc-shaped cover with a hollow cavity 3024 inside. The cover wall of the impeller disc 5042 is hollowed out. The structure of the impeller disc 5042 as an inverted arc-shaped cover with a hollow cavity 3024 inside helps to form a specific water flow pattern when rotating, guiding the water to move upward or outward, and increasing the cleaning coverage area. The hollow cavity 3024 can reduce the weight of the impeller 5042 and reduce the load on the drive motor 5041. At the same time, it may generate additional water flow disturbance effect when rotating. The outer surface of the impeller 5042 is provided with protrusions 5043. The protrusions 5043 are arranged in a circumferential array along the impeller 5042 and protrude outward from the outer surface of the impeller 5042. The blue light module 505 is installed at the end of the first guide slide 404 facing the water bucket 501 and is electrically connected to the frame 1 to reduce the pathogenic bacteria that vegetables bring into the washing water bucket 501 and attach to the surface.

[0036] When the integrated vegetable cutting, cleaning, and collection machine is operating in the field, the cut leafy vegetables are conveyed to the first guide chute 404 via the elevator 401. As the vegetables move along the first guide chute 404 towards the water tank 501, the blue light module 505 installed at the end of the first guide chute 404 facing the water tank 501 is activated, emitting blue light of a specific wavelength. This blue light can initially irradiate the surface of the vegetables. For example, by using an array of LED blue light beads 5053 with a wavelength of 405nm, the pathogenic bacteria attached to the surface of the vegetables are killed or inhibited by light after entering the water tank 501, thereby reducing the initial amount of bacteria entering the cleaning water tank 501. Once the vegetables fall into the water tank 501, the cleaning process enters the physical agitation stage. The output shaft of the drive motor 5041 located at the center of the bottom of the water tank 501 passes through the bottom of the water tank 501 and is firmly fixed to the center of the impeller 5042 via bolt flanges. The impeller 5042 is integrally injection molded from high-strength engineering plastic. Its inverted arc-shaped cover has evenly distributed circular perforations approximately 5mm in diameter, and its outer surface has circumferentially spaced strip-shaped protrusions approximately 3mm high. When the drive motor 5041 rotates at a speed of, for example, 100-300 revolutions per minute, the impeller 5042 rotates at high speed within the water tank 501. The arc-shaped cover, perforations, and protrusions 5043 work together to generate strong, multi-directional water vortexes and impacts within the water tank 501. These water flows simulate the action of hand washing, thoroughly rinsing the vegetables and effectively removing dirt, sand, and debris adhering to the leaves. Simultaneously, this powerful agitation helps the purifying ions generated by the electrolytic plate 502 within the water tank 501 diffuse more evenly into the water and fully contact all surfaces of the vegetables, thereby enhancing the degradation efficiency of pesticide residues and the deep sterilization effect.

[0037] Furthermore, there are three impeller components 504. One impeller component 504 is axially located at the bottom center of the water bucket 501, and the other impeller components 504 are radially symmetrically installed on the lower half of the side wall of the water bucket 501. The rotation direction of the impeller component 504 located at the bottom of the water bucket 501 is staggered from the rotation direction of the impeller component 504 on the side wall of the water bucket 501. The rotation directions of the impeller components 504 between the side walls are also staggered.

[0038] In one specific implementation, three impeller components 504 are arranged inside the water tank 501. One impeller component 504 is axially mounted at the center of the bottom of the water tank 501, and the output end of its drive motor 5041 passes through the center point of the end face of the water tank 501 and is fixedly connected to the center of the impeller disk 5042. The other two impeller components 504 are radially symmetrically mounted on the lower half of the side wall of the water tank 501. For example, they can be located on opposite sides of the side wall of the water tank 501, or distributed at approximately 180-degree intervals. During operation, the bottom center impeller component 504 can be set to rotate clockwise, generating an outwardly spreading vortex. The two impeller components 504 mounted on the side wall can be set to rotate counterclockwise. In this way, the clockwise water flow generated by the bottom impeller component 504 and the counterclockwise water flow generated by the side wall impeller components 504 interact inside the water tank 501, forming complex convection and shear forces. Meanwhile, because the two impellers 504 on the side wall also rotate in an alternating manner, this multi-layered, staggered rotation pattern effectively breaks the uniformity of the water flow, creating multiple, multi-directional, and powerful water flows within the bucket 501. This causes the vegetables to continuously tumble and collide within the bucket 501, achieving comprehensive and thorough cleaning. For example, when the bottom impeller 504 rotates clockwise, the side impellers 504 rotate counterclockwise. Their combined action creates a three-dimensional, spiraling, or descending complex vortex within the bucket 501, while simultaneously generating strong turbulence in localized areas, efficiently rinsing the surface of the vegetables.

[0039] The lower end of the inner wall of the water tank 501 is provided with mounting grooves 5011 corresponding to the number of electrolytic plates 502. The electrolytic plates 502 are provided with through holes at corresponding positions on both sides and in the mounting grooves 5011. The electrolytic plates 502 are fixed in the mounting grooves 5011 by bolts through the through holes. The bottom of the mounting grooves 5011 is provided with wire holes 5012 through which the terminals of the electrolytic plates 502 pass. The wire holes 5012 are connected to the inside of the frame 1. The terminals of the electrolytic plates 502 are electrically connected to the frame 1 after passing through the wire holes 5012. The electrolytic plates 502 are sheet-like structures. Their outer surface is bent to one side after wire cutting to form multiple fin-like protrusions 5021 that are spaced apart along the length direction. The spacing between adjacent fin-like protrusions 5021 is 2-5mm.

[0040] The water tank 501 is integrally injection molded, with a pre-drilled mounting groove 5011 on the lower end of its inner wall that precisely matches the dimensions of the electrolytic plate 502. These mounting grooves 5011 can be designed with barbs or snap-fit ​​structures to assist in the initial positioning of the electrolytic plate 502. The electrolytic plate 502 itself can be a samarium-platinum electrode sheet, with 3mm diameter through holes pre-drilled on both sides. During installation, the electrolytic plate 502 is inserted into the mounting groove 5011, aligning its through holes with the corresponding through holes within the groove. Then, an M3 stainless steel bolt is passed through the through hole and tightened with a nut on the outside of the water tank 501. To ensure a tight seal, a waterproof washer can be used between the bolt and the through hole. A wiring hole 5012 with a diameter of approximately 5mm can be pre-drilled at the bottom of the mounting groove 5011. This wiring hole 5012 connects to a waterproof junction box on the outside of the water tank 501, and the junction box is connected to the power supply wiring harness inside the frame 1 via a waterproof connector. The electrolytic plate 502 has fin-shaped protrusions 5021 with a height of approximately 2 mm and a thickness of 0.5 mm formed on its surface using a wire cutting process. These protrusions are evenly distributed along the length of the electrolytic plate 502, and the spacing between adjacent fin-shaped protrusions 5021 is precisely controlled at 3 mm. When the electrolytic plate 502 is energized, these fin-shaped protrusions 5021 not only increase the electrolysis reaction area, but also guide the water flow to form fine turbulence between the fins when the impeller 504 agitates the water flow in the water tank 501, further improving the electrolysis efficiency.

[0041] The blue light module 505 includes a mounting base 5051, a transparent protective shell 5052, and LED blue light beads 5053. Multiple LED blue light beads 5053 are fixed at intervals along the width direction of the first guide slide 404 on the surface of the mounting base 5051 facing the discharge end of the first guide slide 404. The transparent protective shell 5052 is sealed and fastened to the outside of the mounting base 5051. The surface of the transparent protective shell 5052 is treated with hydrophobic and anti-fogging properties. An angle adjustment bracket 5054 is provided between the mounting base 5051 and the outer wall of the first guide slide 404 for adjusting the irradiation angle of the LED blue light beads 5053.

[0042] The blue light module 505 provides stable support for the LED blue light beads 5053 through its internal mounting base 5051, ensuring that the beads will not shift due to vibration during equipment operation, thus guaranteeing the continuity and stability of blue light irradiation. Multiple LED blue light beads 5053 are evenly spaced and fixed to the surface of the mounting base 5051 facing the discharge end of the first guide slide 404 along the width direction of the first guide slide 404, allowing the blue light to form a wide and uniform irradiation area, effectively covering the vegetables from the first draining frame 402 and reducing blind spots. Outside the blue light module 505, a transparent protective shell 5052 is sealed to the outside of the mounting base 5051, forming a robust physical barrier that effectively prevents moisture, dirt, and debris in the cleaning environment from corroding the LED blue light beads 5053 and internal circuitry, greatly extending the module's lifespan and ensuring its long-term stable operation. Furthermore, the transparent protective shell 5052 has a hydrophobic and anti-fogging treatment, which effectively prevents water vapor condensation even in humid cleaning environments, ensuring that the blue light transmittance remains unaffected and thus maintaining a continuous and efficient sterilization effect. The mounting base 5051 is connected to the outer wall of the first guide slide 404 via an angle adjustment bracket 5054, allowing the irradiation angle of the LED blue light bead 5053 to be flexibly adjusted according to the characteristics of different vegetables or cleaning needs. In this preferred embodiment, the angle adjustment bracket 5054 has a universal ball joint structure, allowing for free adjustment and locking of the angle in multiple directions. For example, for vegetables with complex leaf structures, the angle can be adjusted to allow the blue light to penetrate deeper into their folds; for flat vegetables, a wider angle of irradiation can be achieved. This adjustability allows the blue light module 505 to adapt to the sterilization needs of various vegetables, optimizing the physical antibacterial effect of blue light on pathogenic bacteria. Through the above structural design, the blue light module 505 of this application can stably, efficiently, comprehensively and adaptably pre-treat pathogens attached to the surface of vegetables before they enter the washing water tank 501, significantly reducing the number of pathogens brought into the washing water tank 501, laying a cleaner foundation for subsequent deep cleaning and electrolytic sterilization, thereby improving the overall cleaning and purification effect and food safety level.

[0043] The flipping component 503, which is used to flip the first drain frame 402 for washing or unloading, includes an active rod 5031, a connecting rod 5032, a rocker arm 5033, and a mounting bracket 5034. Mounting bracket 5034 is fixed to the outside of frame 1. One end of active rod 5031 is rotatably connected to mounting bracket 5034, and its middle part is rotatably connected to one end of connecting rod 5032. The other end of connecting rod 5032 is rotatably connected to the middle part of rocker arm 5033. One end of rocker arm 5033 is rotatably connected to frame 1, and the other end is provided with extension part 5035. Extension part 5035 is shaft-shaped, and C-shaped fastener 5036 is slidably installed on extension part 5035. The edge of the first drain frame 402 is provided with arc-shaped side skirt 4. 021, the extension 5035 is placed below the arc-shaped side skirt 4021, and the open end of the C-shaped fastener 5036 simultaneously fastens the outer peripheral surface of the extension 5035 and the outer peripheral surface of the arc-shaped side skirt 4021. The C-shaped fastener 5036, the extension 5035 and the arc-shaped side skirt 4021 are respectively provided with through holes, and the extension 5035, the first drain frame 402 and the C-shaped fastener 5036 are also provided with bolts that pass through the through holes and nuts that cooperate with the bolts to lock them in place.

[0044] The active rod 5031, serving as the input end of the tilting component 503, receives external power and transmits it to the connecting rod 5032. It is constructed of a metal rod. The connecting rod 5032 connects the active rod 5031 and the rocker arm 5033, transmitting the motion and force of the active rod 5031 to the rocker arm 5033. It is typically a rigid rod, with both ends connected to the active rod 5031 and the rocker arm 5033 via pins or ball joints. The rocker arm 5033 is the output end of the tilting component 503, directly driving the first drain frame 402 to tilt. Typically, one end is fixed to the frame 1 as a fulcrum, and the other end is connected to the first drain frame 402 via an extension 5035. The mounting bracket 5034 provides a fixed support structure for the flipping component 503, ensuring that the flipping component 503 can be stably installed on the outside of the frame 1. It can be made of metal sheet or profile welded or bolted together. The other end of the rocker arm 5033 is provided with an extension 5035, which is an extension of the rocker arm 5033 and is used to connect with the first drain frame 402. Its function is to convert the swinging motion of the rocker arm 5033 into a flipping drive for the first drain frame 402. The extension 5035 is axial and has a cylindrical or near-cylindrical cross section, which facilitates the sliding installation of the C-shaped fastener 5036 and provides stable connection support. It can be made of solid or hollow metal rods, tubes, etc. A C-shaped fastener 5036 is slidably mounted on the extension 5035. The C-shaped fastener 5036 is a fastening element with a C-shaped opening, slidably mounted on the shaft-shaped extension 5035. Its function is to form a fastening connection with the arc-shaped side skirt 4021 of the first drain frame 402, allowing for axial adjustment of the fastener on the extension 5035. The edge of the first drain frame 402 is provided with an arc-shaped side skirt 4021, which is an arc-shaped structure extending outward from the edge of the first drain frame 402. Its function is to provide a connection surface adapted to the C-shaped fastener 5036 and the extension 5035, ensuring a stable and secure connection. The extension portion 5035 is positioned below the arc-shaped side skirt 4021. The open end of the C-shaped fastener 5036 simultaneously engages the outer circumferential surface of the extension portion 5035 and the outer circumferential surface of the arc-shaped side skirt 4021. This double-locking design enhances the stability of the connection and prevents relative displacement or detachment of the drain frame during flipping. Corresponding through holes are provided on the C-shaped fastener 5036, the extension portion 5035, and the arc-shaped side skirt 4021. These holes can be aligned during assembly, providing a passage for bolts to pass through. The assembly also includes bolts that penetrate the through holes and nuts that engage with the bolts for locking. The bolts and nuts achieve a secure connection through threaded engagement, providing a detachable, high-strength mechanical lock that firmly connects the extension portion 5035, the C-shaped fastener 5036, and the first drain frame 402 together.

[0045] The frame 1 is equipped with a power component 5037, and the output end of the power component 5037 is connected to the middle part of the drive rod 5031.

[0046] In this preferred embodiment, the power component 5037 is an electric push rod, the bottom end of which is hinged to the frame 1, and the output end of which is hinged to the end of the drive rod 5031 away from the mounting frame 5034. When the electric push rod is energized and extended or retracted under the control of the frame 1, it pushes or pulls the drive rod 5031, thereby driving the entire four-bar linkage to move together, causing the rocker arm 5033 to drive the first drain frame 402 to perform up-and-down flipping or tilting unloading actions in the water bucket 501. For example, when the frame 1 issues a command to drive the push rod to extend, the drive rod 5031 rotates around the mounting frame 5034, the connecting rod 5032 pulls the rocker arm 5033 to swing, causing the extension part 5035 to flip upward synchronously, driving the first drain frame 402 to be lifted from the water bucket 501 and tilted, completing the draining or unloading.

[0047] In this preferred embodiment, such as Figure 1 As shown, a placement section 103 is also provided above the rear end of the frame. The placement section 103 has a rectangular cross-section and is used to stack multiple second drain frames 403 to facilitate operators to quickly pick up and put down the frames, thereby improving operational efficiency. Empty second drain frames 403 can be used immediately to receive washed vegetables, while fully loaded second drain frames 403 can be pulled out of the frame and transferred to subsequent processing stations, effectively reducing operation waiting time, ensuring the continuous operation process of the integrated machine, and further enhancing the efficiency and practicality of the equipment.

[0048] The above description is merely a specific embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the technical scope disclosed in the present invention should be included within the scope of protection of the present invention. Therefore, the scope of protection of the present invention should be determined by the scope of the claims.

Claims

1. A vegetable quick-cutting, cleaning, and collection integrated machine, comprising a frame (1), wherein the bottom of the frame (1) is provided with a driving device (2) to facilitate the movement of the frame (1), characterized in that, The frame (1) is equipped with a reciprocating cutting assembly (3), a transport assembly (4) and a cleaning assembly (5). The reciprocating cutting assembly (3) is installed at the front end of the frame (1), the cleaning assembly (5) is installed at the rear end of the frame (1), and the transport assembly (4) includes a hoist (401), a first drain frame (402) and a second drain frame (403). The input end of the hoist (401) is attached to the reciprocating cutting assembly (3), and its output end is located above the cleaning assembly (5). The transport assembly (4) also includes a first guide slide (404) and a second guide slide (405). The hoist (401) is connected to the first drain frame (402) through the first guide slide (404), and the first drain frame (402) is connected to the second drain frame (403) through the second guide slide (405). The cleaning assembly (5) includes a water tank (501), an electrolytic plate (502), and a flipping component (503). The bucket (501) is located below the output end of the elevator (401). The outer periphery of the first drain frame (402) is adapted to and snapped into the inner periphery of the bucket opening of the bucket (501). One end of the flipping part (503) is fixedly installed on the frame (1), and the other end is connected to both sides of the outer periphery of the first drain frame (402). The flipping part (503) drives the first drain frame (402) to flip up and down inside the bucket (501) by rotating. Multiple electrolytic plates (502) are arranged around the inner wall of the water tank (501) and electrically connected to the frame (1) for electrolytic sterilization of the water in the tank.

2. The vegetable rapid cutting, cleaning, and collection integrated machine according to claim 1, characterized in that, The cleaning assembly (5) includes a pulsator (504) and a blue light module (505); The impeller component (504) includes a drive motor (5041) and an impeller disk (5042). The drive motor (5041) is installed inside the frame (1), and its output end passes through the center point of the end face of the water bucket (501). The center of the impeller disk (5042) is fixedly connected to the output end of the drive motor (5041). The impeller disk (5042) is in the shape of an inverted arc-shaped cover, and its interior is a hollow cavity (3024). The cover wall of the impeller disk (5042) is hollowed out. The outer surface of the impeller disk (5042) is provided with protrusions (5043). The protrusions (5043) are arranged in a circumferential array along the impeller disk (5042) and protrude outward from the outer surface of the impeller disk (5042). The blue light module (505) is installed at the end of the first guide slide (404) facing the water bucket (501) and electrically connected to the frame (1) to reduce the pathogenic bacteria that vegetables bring into the washing water bucket (501) and attach to the surface.

3. The vegetable rapid cutting, cleaning, and collection integrated machine according to claim 2, characterized in that, The number of impeller components (504) is 2 to 4, one of which is axially located at the bottom center of the water bucket (501), and the other impeller components (504) are radially symmetrically installed on the lower half of the side wall of the water bucket (501). The rotation direction of the impeller (504) located at the bottom of the water bucket (501) is offset from the rotation direction of the impeller (504) on the side wall of the water bucket (501), and the rotation directions of the impellers (504) between the side walls are also staggered.

4. The vegetable quick-cutting, cleaning, and collection integrated machine according to claim 2, characterized in that, The lower end of the inner wall of the water bucket (501) is provided with mounting grooves (5011) corresponding to the number of electrolytic plates (502). The electrolytic plates (502) are provided with through holes at corresponding positions on both sides and in the mounting grooves (5011). The electrolytic plates (502) are fixed in the mounting grooves (5011) by bolts through the through holes. The bottom of the mounting grooves (5011) is provided with wire holes (5012) through which the terminals of the electrolytic plates (502) pass. The wire holes (5012) are connected to the inside of the frame (1). The terminals of the electrolytic plates (502) are electrically connected to the frame (1) after passing through the wire holes (5012). The electrolytic plate (502) has a sheet-like structure. Its outer surface is bent to one side after being wire-cut to form multiple fin-like protrusions (5021) that are spaced apart along the length direction. The distance between adjacent fin-like protrusions (5021) is 2-5 mm.

5. The vegetable rapid cutting, cleaning, and collection integrated machine according to claim 2, characterized in that, The blue light module (505) includes a mounting base (5051), a transparent protective shell (5052), and LED blue light beads (5053). A plurality of LED blue light beads (5053) are fixed at intervals along the width direction of the first guide slide (404) on the surface of the mounting base (5051) facing the discharge end of the first guide slide (404). The transparent protective shell (5052) is sealed and fastened to the outside of the mounting base (5051). The surface of the transparent protective shell (5052) is treated with hydrophobic and anti-fogging properties. An angle adjustment bracket (5054) is provided between the mounting base (5051) and the outer wall of the first guide slide (404) for adjusting the illumination angle of the LED blue light bead (5053).

6. The vegetable rapid cutting, cleaning, and collection integrated machine according to claim 1, characterized in that, The transport component (4) is hollowed out around its perimeter.

7. The vegetable rapid cutting, cleaning, and collection integrated machine according to claim 1, characterized in that, The reciprocating cutting assembly (3) includes a fixed base (301) and a cutting component (302); The rear end of the fixed base (301) is provided with a slider (303), and the front end of the frame (1) is provided with a groove (304) corresponding to the slider (303). The opening direction of the groove (304) is perpendicular to the ground. The fixed base (301) is slidably connected to the groove (304) through the slider (303). The front ends of the frame (1) are provided with electric push rods (305) installed in the opening direction of the groove (304). The output end of the electric push rod (305) is connected to the side of the fixed base (301). The lower end face of the fixed base (301) is provided with an infrared distance sensor (306) for detecting the distance between the lower end of the fixed base (301) and the ground. The cutting part (302) is installed in the fixed base (301).

8. The vegetable quick-cutting, cleaning, and collection integrated machine according to claim 7, characterized in that, The cutting component (302) includes a cutting blade (3021), a geared motor (3022), and a butterfly-shaped eccentric block (3023). The fixed base (301) has a cavity (3024) communicating with the outside, and multiple through holes are opened along its length. Two cutting blades (3021) are slidably installed in the cavity (3024). The cutting blades (3021) have guide grooves (3026) along their length that correspond to the number of through holes on the fixed base (301). The fixed base (301) is connected to the cutting blades (3021) by bolts passing through the through holes and guide grooves (3026). The geared motor (3022) is vertically mounted on one side of the fixed base (301), and its output end is fixedly connected to the center of the butterfly-shaped eccentric block (3023). The cutting blade (3021) has a serrated edge, and a rectangular groove (3027) is provided at one end near the geared motor (3022). The length of the rectangular groove (3027) is greater than twice the eccentric radius of the butterfly eccentric block (3023). The two ends of the butterfly eccentric block (3023) are respectively embedded in the adjacent rectangular groove (3027). The butterfly-shaped eccentric block (3023) is made by stacking two eccentric blocks and fixing them through the central shaft hole, and the eccentric directions of the two eccentric blocks are arranged in a 180° mirror image.

9. A vegetable quick-cutting, cleaning, and collection integrated machine according to claim 1, characterized in that, The flipping component (503) includes an active rod (5031), a connecting rod (5032), a rocker arm (5033), and a mounting bracket (5034). The mounting bracket (5034) is fixed to the outside of the frame (1). One end of the active rod (5031) is rotatably connected to the mounting bracket (5034), and its middle part is rotatably connected to one end of the connecting rod (5032). The other end of the connecting rod (5032) is rotatably connected to the middle part of the rocker arm (5033). One end of the rocker arm (5033) is rotatably connected to the frame (1), and the other end is provided with an extension part (5035). The extension part (5035) is axial, and a C-shaped fastener (5036) is slidably installed on the extension part (5035). The edge of the first drain frame (402) is provided with an arc-shaped side skirt. 4021), the extension (5035) is placed below the arc-shaped side skirt (4021), the open end of the C-shaped fastener (5036) simultaneously fastens the outer peripheral surface of the extension (5035) and the outer peripheral surface of the arc-shaped side skirt (4021), and the C-shaped fastener (5036), the extension (5035) and the arc-shaped side skirt (4021) are respectively provided with through holes, and also include bolts that pass through the through holes, and nuts that cooperate with the bolts to lock them, so as to fix the extension (5035), the first drain frame (402) and the C-shaped fastener (5036) in place; The frame (1) is provided with a power component (5037), and the output end of the power component (5037) is connected to the middle of the active rod (5031).

10. A vegetable quick-cutting, cleaning, and collection integrated machine according to claim 9, characterized in that, The power component (5037) can be any one of an electric push rod, a cylinder, or a hydraulic cylinder. Its cylinder body bottom end is hinged to the frame (1), and its output end rod head is hinged to the end of the active rod (5031) away from the mounting frame (5034).

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