Auxiliary device for transplanting myricaria laxiflora and use method

Abstract

The invention provides an auxiliary device for transplanting myricaria laxiflora and a use method, and belongs to the technical field of transplanting auxiliary devices. Comprising a beam frame, the inner wall of the beam frame is fixedly connected with an operation platform, the end of the operation platform is fixedly connected with a driving assistance box, the end of the driving assistance box is fixedly connected with an auxiliary push rod, the two ends of the beam frame are rotationally connected with universal wheels, and the interior of the driving assistance box is fixedly connected with an assistance transplanting assembly. The power-assisted transplanting assembly is used for providing seedling taking power, and the power-assisted transplanting assembly is connected with the driving power-assisted box. By arranging the bionic holding assembly and the microenvironment maintenance assembly, root systems of different sizes are accurately matched, hard damage to the root systems caused by fixed specification of a seedling taking tool is avoided, the integrity of the root systems is protected, illumination and humidity conditions of a primordial growth environment of myricaria laxiflora are simulated, and the survival rate of myricaria laxiflora is improved. The problems that in the transplanting process, seedlings lack growth environment maintenance, and the state becomes poor are solved.

Description

Technical Field

[0001] This invention relates to the field of transplanting auxiliary devices, and in particular to an auxiliary device and method for transplanting thinned flowering juniper branches. Background Technology

[0002] Sparse-flowered water juniper is an "amphibious plant" that enters a dormant state during the flood season of the Yangtze River and can tolerate flooding for up to 5 months. After the water recedes, it quickly recovers, grows, flowers, and bears fruit. It has a well-developed root system that can effectively stabilize the soil and protect the riverbanks, playing an important role in riverbank greening and preventing soil erosion.

[0003] The thinning juniper transplanting aid is a tool specifically designed for the thinning juniper transplanting process, aiming to improve transplanting efficiency, reduce manual labor intensity, and protect the integrity of the plant's root system and stem during the transplanting process.

[0004] Existing transplanting aids for thinning flowering juniper are ineffective at protecting the root systems of seedlings of different sizes during transplanting. This leads to root damage during the lifting process, reducing seedling survival rates. Furthermore, the transplanting process deprives seedlings of their original ecological environment, resulting in poor seedling condition and negatively impacting post-transplant survival and growth quality. Therefore, this application provides an auxiliary device and method for transplanting thin-flowered juniper branches to meet the needs. Summary of the Invention

[0005] The technical problem to be solved by the present invention is to provide an auxiliary device and method for transplanting thinned flowering juniper to solve the problems of existing auxiliary devices for transplanting thinned flowering juniper, which have difficulty in effectively protecting the root system of seedlings of different sizes when transplanting seedlings, resulting in hard damage to the root system during the seedling lifting process, which reduces the survival rate of seedlings. At the same time, because the seedlings are separated from their original ecological environment during the transplanting process and lack the maintenance of the growth environment, the seedlings are in poor condition during the transplanting process, which affects the survival rate and growth quality of seedlings after transplanting.

[0006] To solve the above-mentioned technical problems, the present invention provides the following technical solution: An auxiliary device for transplanting thinned-flowering juniper branches includes a beam frame, an operating platform fixedly connected to the inner wall of the beam frame, a drive assist box fixedly connected to the end of the operating platform, an auxiliary push rod fixedly connected to the end of the drive assist box, casters rotatably connected to both ends of the beam frame, a transplant assist component fixedly connected inside the drive assist box for providing power to lift the seedling, and the transplant assist component is connected to the drive assist box; a biomimetic holding component for reducing damage to the seedling, and the biomimetic holding component is connected to the transplant assist component; and a microenvironment maintenance component for maintaining the transplanted seedling, and the microenvironment maintenance component is connected to the operating platform.

[0007] Optionally, the assisted transplanting assembly includes a fixed frame that is fixedly connected inside the drive assist box, a lifting rod is inserted into the fixed frame, and a knob is threaded onto the surface of the fixed frame.

[0008] Optionally, a movable sleeve is fitted onto the surface of the lifting rod, and a multi-directional folding rod is rotatably connected to the end of the movable sleeve. A slide rail is fixedly connected to the surface of the operating platform, and a locking block is fixedly connected to the end of the slide rail.

[0009] Optionally, the bionic holding assembly includes a drive rod fixedly connected to the end of a multi-directional folding rod, an annular block fixedly connected to the bottom of the drive rod, a plurality of telescopic rods fixedly connected to the end of the annular block, and a sampling wall panel fixedly connected to the other end of the plurality of telescopic rods.

[0010] Optionally, the upper wall panel of the sampling wall panel is smaller than the lower wall panel, an annular telescopic frame is inserted into one side of the top of the sampling wall panel, a moving block is movably connected to the surface of the drive rod, and multiple connecting arms are rotatably connected to the end of the moving block, with the other ends of the multiple connecting arms rotatably connected to the top of the sampling wall panel.

[0011] Optionally, an arc-shaped cutting blade is slidably connected to the bottom of the inner wall of the sampling wall panel, and multiple elastic strips are obliquely arranged on the surface of the arc-shaped cutting blade. An elastic shaping plate is also rotatably connected to the inner wall of the sampling wall panel, and a spring is fixedly connected to the top inner wall of the elastic shaping plate.

[0012] Optionally, the microenvironment maintenance component includes multiple pretreatment chambers slidably connected above the operating platform, with micro fans inserted at both ends of the multiple pretreatment chambers, and a maintenance bucket fixedly connected inside the pretreatment chambers.

[0013] Optionally, a flap is rotatably connected to the top of the curing bucket, a spherical loading hopper is fixedly connected inside the curing bucket, multiple holes are opened at the bottom of the spherical loading hopper, non-woven fabric is fixedly connected to the top of the spherical loading hopper, and a miniature hydraulic cylinder is fixedly connected to the bottom of the pretreatment chamber.

[0014] Optionally, a sealing push plate is fixedly connected to the output end of the micro hydraulic cylinder, multiple atomizing nozzles are fixedly connected to the top inner wall of the curing tank, a high-frequency camera is also fixedly connected to the top inner wall of the curing tank, a liquid storage tank is fixedly connected to the inner wall of the pretreatment chamber, and the output end of the liquid storage tank is connected to the multiple atomizing nozzles.

[0015] This application also provides a method for using an auxiliary device for transplanting thinned-flower juniper branches, including the following steps: S1: First, select seedlings, then drive the operating platform to the designated position, adjust and check that the transplanting assistance component of the transplanting aid is in the best position, clear weeds and gravel from the seedling area, and measure soil salinity and humidity. S2: Then, with the base of the seedling as the center, adjust the area of ​​the seedling surrounded by the sampling wall to determine the diameter of the soil ball, dig vertically to avoid damaging the seedling roots and stems, until the seedling stems and leaves appear at the top of the sampling wall, then drive the arc-shaped cutting blade to retract and form an independent soil ball. S3: Then, the seedling soil ball is placed in the pretreatment chamber. First, the seedling is sampled using a high-frequency camera. Then, the soil ball is wrapped again with non-woven fabric to prevent soil loss. S4: Finally, use the flip-up plate to block some of the light to prevent strong light from scorching the seedlings. At the same time, the water level in the maintenance bucket can be adjusted by controlling the sealed push plate to prevent water accumulation and root rot. Combine the atomizing nozzle with the liquid storage tank to spray the seedling surface with nutrient element protective solution to maintain seedling function and improve transplant survival rate.

[0016] Compared with the prior art, the present invention has at least the following beneficial effects: In the above solution, by setting up an assisted transplanting component, the coordinated use of a fixed frame, lifting rod, multi-directional folding rod, and slide rail allows for precise adjustment of the extension length of the lifting rod with the help of a knob. Combined with the rotation adjustment of the movable sleeve and multi-directional folding rod, it can quickly adapt to seedlings in different growth positions, eliminating the need for laborious manual digging and significantly reducing labor intensity. At the same time, the design of the slide rail and locking block enables precise docking of the component with the microenvironment maintenance component, allowing the seedlings to be quickly transferred to the maintenance stage after being removed from the soil, reducing the exposure time of the seedlings after being removed from the soil, and laying the foundation for subsequent maintenance and transplant survival rate.

[0017] By incorporating a biomimetic holding component and utilizing the linkage of moving blocks, connecting arms, and telescopic rods, the area of ​​the sampling wall panel surrounding the seedling can be flexibly adjusted to precisely match root systems of different sizes. This avoids the hard damage to the root system caused by the fixed specifications of traditional seedling extraction tools. At the same time, the design of the sampling wall panel, which is smaller at the top and larger at the bottom, combined with the elastic closing structure of the arc-shaped cutting blade, can form a complete soil ball during vertical digging, while allowing clear observation of the condition of the seedling stems and leaves. The combination of the elastic shaping plate and spring can further assist in the formation of the soil ball and increase its compactness, maximizing the protection of the root system's integrity. In addition, the synchronous adjustment function of the ring telescopic frame ensures that the seedling stems and leaves are avoided during the extraction process, preventing damage caused by mechanical contact.

[0018] By setting up a microenvironment maintenance component, utilizing a micro fan, adjustable flap, and water level control structure within the pretreatment chamber, the light and humidity conditions of the native growth environment of *Myrica spp.* are simulated. This avoids problems such as dehydration and sunburn in seedlings due to separation from their native environment. The non-woven fabric and river sand padding design on the top of the spherical loading hopper can wrap the root ball twice to prevent soil loss. At the same time, the porous structure facilitates water penetration. Combined with the water level adjustment function of the sealed push plate, soil moisture can be precisely controlled to prevent waterlogging and root rot. The high-frequency camera can monitor the seedling growth status in real time. The combination of atomizing nozzles and liquid storage tanks can spray nutrient protective liquid in a targeted manner, forming a protective film on the seedling surface to maintain its physiological functions. This effectively solves the problem of seedlings lacking a growth environment and deteriorating in condition during transplanting, significantly improving the transplant survival rate and subsequent growth quality. Attached Figure Description

[0019] The accompanying drawings, which are incorporated herein and form part of the specification, illustrate embodiments of the invention and, together with the specification, further serve to explain the principles of the invention and enable those skilled in the art to practice and use the invention.

[0020] Figure 1 A first-person perspective three-dimensional structural diagram of an auxiliary device for transplanting thinned flowering juniper branches; Figure 2 A second-view three-dimensional structural diagram of an auxiliary device for transplanting thinned flowering juniper branches; Figure 3 A three-dimensional structural diagram of the operating platform and slide rails; Figure 4 A schematic diagram of the three-dimensional structure of the transplanting component; Figure 5 A schematic diagram of the three-dimensional structure of the multi-directional folding rod and the drive rod in operation; Figure 6 A schematic diagram of the three-dimensional structure of the biomimetic holding component; Figure 7 A schematic diagram of the three-dimensional structure of the sampling wall panel and the curved cutting blade; Figure 8 A three-dimensional structural diagram of the pretreatment chamber and the flap; Figure 9 A three-dimensional structural diagram of the pretreatment chamber and curing tank in combination; Figure 10 This is a schematic diagram of the three-dimensional structure of the microenvironment maintenance component.

[0021] Figure label: 1. Beam frame; 2. Operating platform; 3. Drive assist box; 4. Auxiliary push rod; 5. Casters; 6. Assisted transplanting assembly; 61. Fixing frame; 62. Lifting rod; 63. Knob; 64. Movable sleeve; 65. Multi-directional folding rod; 66. Slide rail; 67. Locking block; 7. Bionic holding assembly; 71. Drive rod; 72. Ring block; 73. Telescopic rod; 74. Sampling wall panel; 75. Moving block; 76. Connecting arm; 77. Ring telescopic frame; 78. Elastic shaping plate; 79. Spring; 710. Arc-shaped cutting blade; 8. Microenvironment curing assembly; 81. Pretreatment chamber; 82. Miniature fan; 83. Curing bucket; 84. Flip plate; 85. Spherical loading hopper; 86. Non-woven fabric; 87. Miniature hydraulic cylinder; 88. Sealing push plate; 89. Atomizing nozzle; 810. High-frequency camera; 811. Liquid storage tank.

[0022] As shown in the figure, specific structures and devices are marked in the figure to clearly illustrate the structure of the embodiments of the present invention. However, this is only for illustrative purposes and is not intended to limit the present invention to this specific structure, device and environment. Those skilled in the art can adjust or modify these devices and environments according to specific needs. Detailed Implementation

[0023] The AA provided by the present invention will now be described in detail with reference to the accompanying drawings and specific embodiments. It should also be noted that, to make the embodiments more comprehensive, the following embodiments are the best and preferred embodiments, and those skilled in the art can use other alternative methods to implement some well-known technologies; moreover, the accompanying drawings are only for more specific description of the embodiments and are not intended to specifically limit the present invention.

[0024] like Figures 1 to 10As shown, an embodiment of the present invention provides an auxiliary device for transplanting thin-flowered juniper branches, including a beam frame 1, an operating platform 2 fixedly connected to the inner wall of the beam frame 1, a drive assist box 3 fixedly connected to the end of the operating platform 2, an auxiliary push rod 4 fixedly connected to the end of the drive assist box 3, universal wheels 5 rotatably connected to both ends of the beam frame 1, a transplant assist component 6 fixedly connected inside the drive assist box 3, the transplant assist component 6 being used to provide power for picking up seedlings, and the transplant assist component 6 being connected to the drive assist box 3; a biomimetic holding component 7, the biomimetic holding component 7 being used to reduce damage to seedlings, the biomimetic holding component 7 being connected to the transplant assist component 6; and a microenvironment maintenance component 8, the microenvironment maintenance component 8 being used to maintain the transplanted seedlings, the microenvironment maintenance component 8 being connected to the operating platform 2.

[0025] As an implementation method in this embodiment, such as Figures 2 to 4 As shown, the assisted transplanting component 6 includes a fixed frame 61 fixedly connected inside the drive assist box 3. A lifting rod 62 is inserted into the inside of the fixed frame 61. A knob 63 is threadedly connected to the surface of the fixed frame 61. A movable sleeve 64 is sleeved on the surface of the lifting rod 62. A multi-directional folding rod 65 is rotatably connected to the end of the movable sleeve 64. A slide rail 66 is fixedly connected to the surface of the operating platform 2. A locking block 67 is fixedly connected to the end of the slide rail 66. By utilizing the coordinated cooperation of the fixed frame 61, the lifting rod 62, the multi-directional folding rod 65, and the slide rail 66, the extension length of the lifting rod 62 can be precisely adjusted with the help of the knob 63. With the rotation adjustment of the movable sleeve 64 and the multi-directional folding rod 65, it can quickly adapt to seedlings in different growth positions without the need for manual digging, greatly reducing labor intensity. At the same time, the design of the slide rail 66 and the locking block 67 can achieve precise docking with the microenvironment maintenance component 8, allowing the seedlings to be quickly transferred to the maintenance stage after being taken out of the soil, reducing the exposure time of the seedlings after being removed from the soil.

[0026] As an implementation method in this embodiment, such as Figures 5 to 7As shown, the bionic holding assembly 7 includes a drive rod 71 fixedly connected to the end of a multi-directional folding rod 65. An annular block 72 is fixedly connected to the bottom of the drive rod 71, and multiple telescopic rods 73 are fixedly connected to the end of the annular block 72. A sampling wall panel 74 is fixedly connected to the other end of each telescopic rod 73. The upper wall panel of the sampling wall panel 74 is smaller than the lower wall panel. An annular telescopic frame 77 is inserted into one side of the top of the sampling wall panel 74. A moving block 75 is movably connected to the surface of the drive rod 71. Multiple connecting arms 76 are rotatably connected to the end of the moving block 75. The other ends of the connecting arms 76 are rotatably connected to the top of the sampling wall panel 74. An arc-shaped cutting blade 710 is slidably connected to the bottom of the inner wall of the sampling wall panel 74. Multiple elastic strips are obliquely arranged on the surface of the arc-shaped cutting blade 710. The inner wall of the sampling wall panel 74 can also rotate. A flexible shaping plate 78 is connected, and a spring 79 is fixedly connected to the inner top wall of the flexible shaping plate 78. By using the linkage of the moving block 75, the connecting arm 76 and the telescopic rod 73, the area of ​​the sampling wall plate 74 surrounding the seedling can be flexibly adjusted to match the root system of different sizes, avoiding hard damage to the root system caused by the fixed specifications of the seedling picking tool. At the same time, the design of the sampling wall plate 74, which is small at the top and large at the bottom, combined with the elastic closing structure of the arc-shaped cutting blade 710, can form a complete soil ball during vertical digging, and can clearly observe the condition of the seedling stems and leaves. The combination of the flexible shaping plate 78 and the spring 79 further assists in the formation of the soil ball and increases its compactness, maximizing the protection of the root system integrity. In addition, the synchronous adjustment function of the ring telescopic frame 77 ensures that the seedling stems and leaves are avoided during the seedling picking process, avoiding damage caused by contact.

[0027] As an implementation method in this embodiment, such as Figures 8 to 10As shown, the microenvironment maintenance component 8 includes multiple pretreatment chambers 81 slidably connected above the operating platform 2. Miniature fans 82 are inserted into both ends of the multiple pretreatment chambers 81. A maintenance tank 83 is fixedly connected inside the pretreatment chamber 81. A flap 84 is rotatably connected to the top of the maintenance tank 83. A spherical loading hopper 85 is fixedly connected inside the maintenance tank 83. Multiple holes are opened at the bottom of the spherical loading hopper 85. Non-woven fabric 86 is fixedly connected to the top of the spherical loading hopper 85. A miniature hydraulic cylinder 87 is fixedly connected to the bottom of the pretreatment chamber 81. A sealing push plate 88 is fixedly connected to the output end of the miniature hydraulic cylinder 87. Multiple atomizing nozzles 89 are fixedly connected to the top inner wall of the maintenance tank 83. A high-frequency camera 810 is also fixedly connected to the top inner wall of the maintenance tank 83. A liquid storage tank 811 is fixedly connected to the inner wall of the pretreatment chamber 81. The output end is connected to multiple atomizing nozzles 89. Utilizing the micro fan 82, adjustable flap 84, and water level control structure within the pretreatment chamber 81, the light and humidity conditions of the native growth environment of the sparsely flowering water juniper are simulated, preventing seedlings from suffering from dehydration or sunburn due to separation from their native environment. The non-woven fabric 86 and river sand padding design on the top of the spherical loading hopper 85 can wrap the soil ball a second time to prevent soil loss. At the same time, the porous structure facilitates water penetration. Combined with the water level adjustment function of the sealing push plate 88, soil moisture can be precisely controlled to avoid waterlogging and root rot. The high-frequency camera 810 can monitor the seedling growth status in real time. The combination of the atomizing nozzles 89 and the liquid storage tank 811 can spray nutrient element protective liquid in a targeted manner, forming a protective film on the seedling surface to maintain its physiological functions. This effectively solves the problem of seedlings lacking a growth environment and deteriorating in condition during transplanting.

[0028] The working principle of the technical solution provided by this invention is as follows: In use, first move the operating platform 2 to the designated seedling starting point, then the transplanting assist component 6 starts to operate. After adjusting the extension length of the lifting rod 62 in the fixed frame 61, drive the knob 63 to lock and fix the lifting rod 62. Then, the microenvironment maintenance component 8 is installed by moving it on the slide rail 66 on the operating platform 2. The microenvironment maintenance component 8 is stopped after it is tightly attached to the locking block 67. Then, after installing multiple microenvironment maintenance components 8 in sequence, the bionic holding component 7 connected to the multi-directional folding rod 65 at the end of the movable sleeve 64 is stretched and rotated to perform the transplanting operation on the seedlings that need to be transplanted.

[0029] Then, the bionic holding component 7 begins to move. First, the holding drive rod 71 approaches the seedling from above and begins to determine the size of the seedling. Then, the position of the moving block 75 on the drive rod 71 is adjusted according to the size of the seedling's stem and leaves. As the moving block 75 moves on the drive rod 71, multiple connecting arms 76 rotatably connected to the end of the moving block 75 push multiple sampling wall plates 74 rotatably connected to the other end of the connecting arms 76 to begin to move. As the sampling wall plates 74 are pushed by the connecting arms 76, the output ends of multiple telescopic rods 73 fixedly connected to the end of the annular block 72 begin to telescopically move in the same direction as the sampling wall plates 74. At the same time, the annular telescopic frame 77 inserted into the top of the sampling wall plates 74 moves along with the multiple sampling wall plates 74. As the area around the axis increases, the size of the annular telescopic frame 77 is adjusted simultaneously. Then, the movement of the moving block 75 stops. Initially, the drive rod 71 is inserted into the soil from the top of the seedling. As the sampling wall plate 74 continues to penetrate the soil until the stem and leaves of the seedling appear in the gap where the upper end of the sampling wall plate 74 connects with the annular telescopic frame 77, the hydraulically driven arc-shaped cutting blade 710 moves radially to retract and achieve ring cutting, forming an independent soil ball. At the same time, as the sampling wall plate 74 continues to penetrate the soil, the elastic shaping plate 78 connected to the sampling wall plate 74, in conjunction with the spring 79, squeezes inward during the excavation process, assisting in the formation of the soil ball and increasing its compactness. Then, the soil ball carrying the seedling is moved to the microenvironment maintenance component 8 for pre-transplanting maintenance.

[0030] After the seedlings are successfully lifted, the microenvironment maintenance component 8 begins operation. First, the root ball carrying the seedling is lowered from above the pretreatment chamber 81 by the bionic holding component 7, which uses a folding flap 84 at the top of the maintenance bucket 83. Before this, a certain amount of river sand is laid on the non-woven fabric 86. As the root ball enters, it first contacts the river sand on the surface of the non-woven fabric 86, which is fixedly connected to the top of the spherical loading hopper 85. At this point, the non-woven fabric 86 begins to bend downwards, wrapping the root ball again to increase the compactness of the root ball at the bottom of the seedling and prevent soil loss. While the root ball carries the seedling into the maintenance bucket 83, the high-frequency camera 810 monitors the seedling's growth status. The system records the growth of seedlings in advance. The maintenance container 83 is a transparent cylindrical container, and the root length of the seedlings can be observed according to the scale on the inner wall of the maintenance container 83. Then, the micro hydraulic cylinder 87 drives the sealing push plate 88 to adjust the height of the sealing push plate 88 in the maintenance container 83, thereby adjusting the water level inside the maintenance container 83. Combined with the breeze generated by the micro fan 82, it imitates the growth habits of the sparse-flowered water juniper to improve the adaptability of the seedlings after transplanting. In addition, the two containers in the liquid storage tank 811 are filled with micronutrient element protective solution, which can be sprayed on the surface of the seedlings through the atomizing nozzle 89 to form a protective film, maintain the survival function of the seedlings, and improve the survival quality after transplanting.

[0031] This application also provides a method for using an auxiliary device for transplanting thinned-flower juniper branches, including the following steps: S1: First, select seedlings, then drive the operating platform 2 to the designated position, adjust and check the transplanting auxiliary device 6 to the optimal position, clear weeds and gravel from the seedling area, and measure soil salinity and humidity. S2: Then, with the base of the seedling as the center, adjust the area of ​​the seedling surrounded by the sampling wall plate 74 to determine the diameter of the soil ball, dig vertically to avoid damaging the seedling roots and stems, until the seedling stems and leaves appear at the top of the sampling wall plate 74, and drive the arc-shaped cutting blade 710 to retract and form an independent soil ball. S3: Then, the seedling soil ball is placed in the pretreatment chamber 81. First, the seedling is sampled by the high-frequency camera 810, and then the soil ball is wrapped again by the non-woven fabric 86 to prevent soil loss. S4: Finally, use the flip plate 84 to block some of the light to avoid scorching the seedlings with strong light. At the same time, the water level in the maintenance tank 83 can be adjusted by controlling the sealing push plate 88 to avoid water accumulation and root rot. Combined with the atomizing nozzle 89 and the liquid storage tank 811, the seedling surface is sprayed with nutrient element protective liquid to maintain seedling function and improve the transplant survival rate.

[0032] This invention encompasses any substitutions, modifications, equivalent methods, and solutions made within the spirit and scope of this invention. To provide the public with a thorough understanding of this invention, specific details are described in detail in the following preferred embodiments; however, those skilled in the art will fully understand the invention even without these details. Furthermore, to avoid unnecessary misunderstanding of the essence of this invention, well-known methods, processes, procedures, components, and circuits are not described in detail.

[0033] The above description is only a preferred embodiment of the present invention. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the principle of the present invention, and these improvements and modifications should also be considered within the scope of protection of the present invention.

Claims

1. An auxiliary device for transplanting thinly flowering juniper branches, comprising a beam frame (1), characterized in that, An operating platform (2) is fixedly connected to the inner wall of the beam frame (1). A drive assist box (3) is fixedly connected to the end of the operating platform (2). An auxiliary push rod (4) is fixedly connected to the end of the drive assist box (3). Universal wheels (5) are rotatably connected to both ends of the beam frame (1). An assist transplanting component (6) is fixedly connected inside the drive assist box (3). The assist transplanting component (6) is used to provide power for picking up seedlings. The assist transplanting component (6) is connected to the drive assist box (3). A bionic holding component (7) is used to reduce damage to seedlings, and the bionic holding component (7) is connected to the transplanting assistance component (6). Microenvironment maintenance component (8) is used to maintain transplanted seedlings and is connected to the operating platform (2).

2. The auxiliary device for transplanting thinned-flowering juniper branches according to claim 1, characterized in that, The assisted transplanting assembly (6) includes a fixed frame (61) fixedly connected inside the drive assist box (3), a lifting rod (62) is inserted inside the fixed frame (61), and a knob (63) is threadedly connected to the surface of the fixed frame (61).

3. The auxiliary device for transplanting thinned-flowering juniper branches according to claim 2, characterized in that, The surface of the lifting rod (62) is fitted with a movable sleeve (64), and the end of the movable sleeve (64) is rotatably connected to a multi-directional folding rod (65). The surface of the operating platform (2) is fixedly connected with a slide rail (66), and the end of the slide rail (66) is fixedly connected with a locking block (67).

4. The auxiliary device for transplanting thinned-flowering juniper branches according to claim 3, characterized in that, The bionic holding assembly (7) includes a drive rod (71) fixedly connected to the end of a multi-directional folding rod (65), an annular block (72) fixedly connected to the bottom of the drive rod (71), a plurality of telescopic rods (73) fixedly connected to the end of the annular block (72), and a sampling wall panel (74) fixedly connected to the other end of the plurality of telescopic rods (73).

5. The auxiliary device for transplanting thinned-flowering juniper branches according to claim 4, characterized in that, The upper wall panel of the sampling wall panel (74) is smaller than the lower wall panel. A ring telescopic frame (77) is inserted into one side of the top of the sampling wall panel (74). A moving block (75) is movably connected to the surface of the drive rod (71). Multiple connecting arms (76) are rotatably connected to the end of the moving block (75). The other end of the multiple connecting arms (76) is rotatably connected to the top of the sampling wall panel (74).

6. The auxiliary device for transplanting thinned-flowering juniper branches according to claim 5, characterized in that, The bottom of the inner wall of the sampling wall panel (74) is slidably connected to an arc-shaped cutting blade (710). The surface of the arc-shaped cutting blade (710) is obliquely provided with multiple elastic strips. The inner wall of the sampling wall panel (74) is also rotatably connected to an elastic shaping plate (78). The top inner wall of the elastic shaping plate (78) is fixedly connected to a spring (79).

7. The auxiliary device for transplanting thin-flowered juniper branches according to claim 6, characterized in that, The microenvironment maintenance component (8) includes multiple pretreatment chambers (81) that are slidably connected above the operating platform (2). Miniature fans (82) are inserted into both ends of the multiple pretreatment chambers (81), and a maintenance bucket (83) is fixedly connected inside the pretreatment chambers (81).

8. The auxiliary device for transplanting thin-flowered juniper branches according to claim 7, characterized in that, The top of the curing bucket (83) is rotatably connected to a flap (84), the inside of the curing bucket (83) is fixedly connected to a spherical loading hopper (85), the bottom of the spherical loading hopper (85) is provided with multiple holes, the top of the spherical loading hopper (85) is fixedly connected to a non-woven fabric (86), and the bottom of the pretreatment chamber (81) is fixedly connected to a micro hydraulic cylinder (87).

9. The auxiliary device for transplanting thin-flowered juniper branches according to claim 8, characterized in that, The output end of the micro hydraulic cylinder (87) is fixedly connected to a sealing push plate (88), the top inner wall of the curing tank (83) is fixedly connected to multiple atomizing nozzles (89), the top inner wall of the curing tank (83) is also fixedly connected to a high-frequency camera (810), the inner wall of the pretreatment chamber (81) is fixedly connected to a liquid storage tank (811), and the output end of the liquid storage tank (811) is connected to multiple atomizing nozzles (89).

10. A method of using an auxiliary device for transplanting thinned-flowering juniper branches, applicable to the auxiliary device for transplanting thinned-flowering juniper branches as described in claim 9, characterized in that, The method includes the following steps: S1: First select seedlings, then drive the operating platform (2) to the designated position, adjust and check the transplanting auxiliary device (6) to the optimal position, clear weeds and gravel from the seedling area, and measure soil salinity and humidity. S2: Then, with the base of the seedling as the center, adjust the area of ​​the seedling surrounded by the sampling wall plate (74), determine the diameter of the soil ball, dig vertically to avoid damaging the seedling roots and stems, until the seedling stems and leaves appear at the top of the sampling wall plate (74), drive the arc-shaped cutting blade (710) to close and form an independent soil ball. S3: Then, the seedling soil ball is placed in the pretreatment chamber (81). The seedling is sampled first by a high-frequency camera (810), and then the soil ball is wrapped again by non-woven fabric (86) to avoid soil loss. S4: Finally, use the flip plate (84) to block some of the light to avoid strong light scorching the seedlings. At the same time, the sealing push plate (88) can be controlled to adjust the water level in the maintenance bucket (83) to avoid water accumulation and root rot. In conjunction with the atomizing nozzle (89) and the liquid storage tank (811), the seedling surface is sprayed with nutrient element protective liquid to maintain seedling function and improve the transplant survival rate.

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