A device for promoting the survival of old trees that are difficult to migrate and an application method thereof

Abstract

The present invention provides a revitalization device for relocating difficult-to-relocate old trees and an application method thereof. The revitalization component also includes a pipeline, a sealing cover, a medication tray, a slider, an axis arm, a through shaft, a rotating shaft and a baffle. The pipeline passes through the lower end of one side of a medicine box, the sealing cover is movably nested in the upper end of the medicine box, the medication tray passes through the end of the pipeline away from the medicine box, the slider slides on one end of the connecting rod, the axis arm is at the end of the slider close to the pipeline, the through shaft is connected to the end of the axis arm away from the slider, the rotating shaft rotates at both ends of the through shaft, and the baffle swings on one side of the rotating shaft. After the baffle swings obliquely, the medicine liquid can flow through the inside of the pipeline to the outside of the medicine box, thereby forming medicine drops on the roots of the old trees, sterilizing and disinfecting the roots of the old trees, and promoting their germination, which is beneficial to promoting the revitalization of the old trees. When the sliding arm is in a static state as a whole, the medicine liquid cannot impact the inclined surface of the slider, and the connecting rods on both sides of the upper end of the slider are at the lower part of the second track, which can limit the position of the slider and avoid the situation where the slider is assisted by the axis arm to return to its position.

Description

Technical Field

[0001] The present invention relates to the field of gardening, and in particular to a device for promoting the survival of ancient trees that are difficult to migrate and an application method thereof. Background Art

[0002] The best time for transplanting is from late January to early February in early spring. At this time, the old trees are dormant or semi-dormant, with slow metabolic activity and slow sap flow. After the old trees are dug out, they need to be wrapped around the trunk ends to prevent the soil from loosening, protect the trunks from being damaged, and avoid direct sunlight, which has a certain heat preservation and moisture retention effect. After the old trees are transported and transplanted into the pit, they need to be supported by transplanting and revitalizing equipment. With regard to the technical inspiration of transplanting and revitalizing equipment, the following problems were found in the research on transplanting and revitalizing equipment:

[0003] Transplantation and revitalization equipment can usually only provide support for ancient trees. After the ancient trees are transplanted, it is necessary to manually add medicine according to the conditions of the ancient trees to assist the survival of the ancient trees, resulting in the inability of the transplantation and revitalization equipment to drip medicine on the roots of the ancient trees after transplantation. In addition, the transplantation and revitalization equipment needs to support the roots of the ancient trees through net bags. After the ancient trees are transplanted, the net bags cannot be quickly disassembled, resulting in the existing net bags usually being cut off after a single use.

[0004] At present, CN201410245158.5 in the prior art discloses a transplantation, maintenance and survival device for ancient and famous trees. When the invention is used, the mesh pieces are installed in stages and sections on the broken root soil balls of the root systems of the trees to be transplanted, and the adjacent mesh pieces are connected into a whole with a central opening, which contains a net bag with broken root-growing fibrous roots and a second-stage soil ball segment root soil ball. After several months, all the broken roots in the net bag will grow a large number of fibrous roots and capillary roots. When the trees are being transplanted and after transplantation, the fibrous roots and capillary roots retained in the broken root balls will provide nutrients for the transplanted trees. The survival rate of the transplanted trees is high, reaching 90%.

[0005] The present invention can mainly solve the problem that transplanting and revitalizing equipment cannot perform drug dripping and revitalizing on ancient trees. Summary of the invention

[0006] The purpose of the present invention is to provide a revitalization device for relocating old trees that are difficult to relocate and an application method thereof.

[0007] To achieve the above object, the present invention provides the following technical solutions:

[0008] A device for promoting the survival of difficult-to-relocate old trees and an application method thereof, comprising a scaffolding, with fastening mechanisms on both sides of the scaffolding, the fastening mechanisms comprising sliding arms, elastic bands, round hoops, connecting ropes and net bags, the sliding arms are slidably sleeved on one side of the scaffolding, the elastic bands are elastically connected to the other side of the scaffolding, the round hoops are distributed on both sides of the lower end of the scaffolding, the connecting ropes are slidably nested in the lower ends of the round hoops, and the net bags are embedded in the lower ends of the connecting ropes.

[0009] As a further solution of the present invention: the sliding arm slides horizontally on the outside of the scaffolding, the outside of the scaffolding is penetrated by holes, and the upper end of the sliding arm is provided with an activation component.

[0010] As a further solution of the present invention: the elastic band is in a semicircular arc shape and is arranged horizontally.

[0011] As a further solution of the present invention: the inside of the round hoop is hollow, the round hoop and the connecting rope are vertically slidably nested, the upper end of the connecting rope is in a shape of a work, and the net bag is connected to the round hoop through the connecting rope.

[0012] As a further solution of the present invention: the interior of the net bag is penetrated by holes, and the diameter of the holes is 1-5 cm.

[0013] As a further solution of the present invention: the activation promotion component includes a medicine box, a connecting rod, a first track and a second track. The medicine box is installed on both sides of the upper end of the sliding arm, the first track is on both sides of the upper end of the medicine box, and the second track is on one side of the first track. The connecting rod slides and extends to the outside of the second track and the first track in turn.

[0014] As a further solution of the present invention: the medicine box is filled with liquid medicine, and the liquid medicine is filled to the lower end of the first track, and the medicine box is concave.

[0015] As a further solution of the present invention: the first track and the second track are arranged horizontally, the second track is inclined at 25-60 degrees, the first track is arranged horizontally, and the connecting rod extends to the outside of the first track.

[0016] As a further solution of the present invention: when the connecting rod is in a stationary state, the connecting rod is located on a side of the first track close to the second track, and the connecting rod is at the lowest point of the second track.

[0017] As a further solution of the present invention: the activation component also includes a pipeline, a sealing cover, a medication tray, a slider, an axis arm, a through shaft, a rotating shaft and a baffle. The pipeline passes through the lower end of one side of the medicine box, the sealing cover is movably nested in the upper end of the medicine box, the medication tray passes through the end of the pipeline away from the medicine box, the slider slides on one end of the connecting rod, the axis arm is at the end of the slider close to the pipeline, the through shaft is connected to the end of the axis arm away from the slider, the rotating shaft rotates at both ends of the through shaft, and the baffle swings on one side of the rotating shaft.

[0018] As a further solution of the present invention: tracks are provided on both sides of the inside of the pipe, the tracks are horizontally inclined, and the width of the two ends of the tracks differs by 1-3 cm, the width of the track at one end close to the medication tray is 1-3 cm wider than the other end, the pipe is at the end of the medicine box close to the elastic band, and the medication tray is penetrated by holes, and the diameter of the holes is 0.1-0.4 cm.

[0019] As a further solution of the present invention: both sides of the slider are connected to the connecting rod, the slider is triangular in shape, the side of the slider close to the pipeline is flat, and the side of the slider away from the pipeline is an inclined surface.

[0020] As a further solution of the present invention: the shaft arm extends to the inside of the pipe, the rotating shaft, the through shaft and the baffle are all located inside the pipe, when the slider slides, the shaft arm slides synchronously, and the through shaft is arranged vertically.

[0021] As a further solution of the present invention: the rotating shaft is matched with a baffle, the baffle swings on both sides of the through-shaft, the baffles on both sides of the through-shaft swing in opposite directions, the baffle is semicircular, and the swing angle of the baffle is 15-90°.

[0022] As a further solution of the present invention: an outer ring is rotatably provided on the outer side of the circular hoop, a ball is swingably provided on the inner side of the circular hoop, and a clamping block is swingably provided on the side of the ball away from the outer ring.

[0023] As a further solution of the present invention: the ball swings and rubs against the inner wall of the outer ring, and when the outer ring rotates, the ball rotates synchronously, one side of the clamping block is horizontally clamped with the upper end of the connecting rope, and the clamping block is triangular in shape.

[0024] As a further solution of the present invention: the application method comprises the following steps. The specific operation steps are as follows:

[0025] S1: After the ancient tree is excavated, the scaffolding is manually placed around the outside of the ancient tree. The upper end of the connecting rope is inserted into the hoop using the upper end of the connecting rope in a working shape. The outer ring is manually rotated counterclockwise, and the outer ring rubs against the outside of the ball. The ball rotates synchronously, and the block on one side of the ball rotates synchronously. At this time, the block forms a clamping connection with the outside of the connecting rope.

[0026] S2: The net bag has holes running through it, with a diameter of 1-5 cm. The trunk and branches of the ancient tree run through the holes, making it convenient for the net bag to wrap the trunk and branches of the ancient tree;

[0027] S3: After the ancient tree is transported, the tripod is screwed to the lower end of the scaffold to facilitate the installation and fixing of the scaffold on the ground, and at the same time, it is convenient for the scaffold to support the outside of the ancient tree. The outer ring is manually rotated clockwise, and the outer ring rubs against the outside of the ball. The ball rotates synchronously, and the block on one side of the ball rotates synchronously. At this time, the block cannot form a clamping connection with the connecting rope, which facilitates the removal of the connecting rope and the net bag from the inside of the hoop;

[0028] S4: After the old tree is transplanted, the medicine box is filled with liquid medicine, and then the sliding arm is slid on the outside of the scaffolding according to the diameter of the old tree, and the elastic band is wrapped around the outside of the old tree. Bolts are passed through the holes, and the bolts are passed through the inside of the scaffolding and the sliding arm in turn, so that the sliding arm and the scaffolding can be connected and fixed conveniently;

[0029] S5: When the sliding arm slides on one side of the scaffold, the medicine box on the upper end of the sliding arm slides synchronously. The liquid medicine inside the medicine box first hits the inclined surface of the slider due to inertia. When the liquid medicine hits the inclined surface of the slider, the slider slides toward one side of the pipeline as a whole. The slider drives the baffle to slide toward the inside of the pipeline through the through shaft. Because the width of one end of the track close to the medication tray is 1-3 cm greater than the width of the other end, when the baffle slides toward the inside of the pipeline, the baffle is stretched into a circular shape by the track as a whole. At this time, the baffle can form a seal inside the pipeline to prevent the liquid medicine from being discharged from the inside of the medicine box through the pipeline;

[0030] S6: After the sliding arm stops sliding, the liquid medicine impacts the side away from the pipeline due to inertia. At this time, the liquid medicine impacts the flat end of the slider, and the slider as a whole slides toward the side away from the pipeline. The slider can drive the through shaft to slide inside the pipeline through the shaft arm;

[0031] S7: Tracks are arranged on both sides of the pipe, the tracks are horizontally inclined, and the width of the two ends of the tracks differs by 1-3 cm. The width of the track at one end close to the medication tray is 1-3 cm greater than the width of the other end. Therefore, when the baffle slides from the inside of the track toward the side away from the medication tray, the distance between the baffles becomes smaller, and the baffle swings obliquely through the rotating shaft.

[0032] S8: After the baffle plate tilts and swings, the liquid medicine can flow through the inside of the pipe to the outside of the medicine box, and then drip medicine to the roots of the old trees to help promote the revitalization of the old trees. When the sliding arm is in a static state as a whole, the liquid medicine cannot impact the inclined surface of the slider, and the connecting rods on both sides of the upper end of the slider are at the lower part of the second track, which can limit the position of the slider;

[0033] S9: When the slider slides toward one side of the pipe, the connecting rods on both sides of the slider slide synchronously inside the first track and the second track. At this time, the connecting rod slides upward inside the second track, and the second track is inclined at 25-60°. The first track is arranged horizontally, which is convenient for the connecting rod to use its own gravity to slide downward on the inner side of the second track. Therefore, the connecting rod can quickly return to its original position when sliding upward. When the connecting rod returns to its original position, it can drive the slider to slide toward the side away from the pipe, so that the connecting rod can use inertia to assist the slider to return to its original position. Beneficial Effects

[0034] 1. When the sliding arm of the present invention slides on one side of the scaffold, the medicine box on the upper end of the sliding arm slides synchronously. The liquid medicine inside the medicine box first impacts the inclined surface of the slider due to inertia. When the liquid medicine impacts the inclined surface of the slider, the slider slides toward one side of the pipeline as a whole. The slider drives the baffle to slide toward the inside of the pipeline through the through shaft. Because the width of one end of the track close to the medication tray is 1-3 cm greater than the width of the other end, when the baffle slides toward the inside of the pipeline, the baffle is stretched into a circular shape by the track as a whole. At this time, the baffle can form a seal inside the pipeline to prevent the liquid medicine from being discharged from the inside of the medicine box through the pipeline;

[0035] 2. After the sliding arm of the present invention stops sliding, the medicine liquid impacts the side away from the pipe due to inertia. At this time, the medicine liquid impacts the flat end of the slider, and the slider as a whole slides toward the side away from the pipe. The slider can drive the through shaft to slide inside the pipe through the shaft arm. Tracks are provided on both sides of the inside of the pipe. The tracks are horizontally inclined, and the width difference between the two ends of the track is 1-3cm. The width of one end of the track close to the medication tray is 1-3cm greater than the width of the other end. Therefore, when the baffle and the inside of the track slide toward the side away from the medication tray, the distance between the baffles becomes smaller, and the baffle is tilted and swung through the rotating shaft at this time;

[0036] 3. After the baffle of the present invention is tilted and swung, the liquid medicine can flow through the inside of the pipe to the outside of the medicine box, and then drip medicine to the roots of the old trees to help promote the revitalization of the old trees. When the sliding arm is in a static state as a whole, the liquid medicine cannot impact the inclined surface of the slider, and the connecting rods on both sides of the upper end of the slider are at the lower part of the second track, which can limit the position of the slider and avoid the situation where the slider assists the baffle to return to its original position through the shaft arm;

[0037] 4. When the slider of the present invention slides toward one side of the pipeline, the connecting rods on both sides of the slider slide synchronously inside the first track and the second track. At this time, the connecting rod slides upward inside the second track. The second track is inclined by 25-60 degrees, and the first track is arranged horizontally, so that the connecting rod can slide downward on the inner side of the second track by its own gravity. Therefore, when the connecting rod slides upward, it can quickly return to slide downward. When the connecting rod returns to slide downward, it can drive the slider to slide toward the side away from the pipeline, so that the connecting rod can use inertia to assist the slider to return to slide;

[0038] 5. Manually rotate the outer ring clockwise, and the outer ring rubs against the outside of the ball. The ball rotates synchronously, and the block on one side of the ball rotates synchronously. At this time, the block cannot form a card connection with the connecting rope, which makes it easy to remove the connecting rope from the inside of the hoop, and then it is easy to remove the net bag and the connecting rope from the lower end of the scaffolding, which is convenient for the subsequent transplantation of the ancient tree;

[0039] 6. Use the upper end of the connecting rope to make it into a working shape, embed the upper end of the connecting rope into the inside of the hoop, manually rotate the outer ring counterclockwise, the outer ring rubs to the outside of the ball, the ball rotates synchronously, and the block on one side of the ball rotates synchronously. At this time, the block forms a card connection with the outside of the connecting rope, making it convenient for the connecting rope to be installed at one end of the scaffolding, and for the net bag to protect the trunk of the ancient tree. BRIEF DESCRIPTION OF THE DRAWINGS

[0040] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0041] Figure 2 It is a schematic cross-sectional view of the medicine box of the present invention.

[0042] Figure 3 It is a schematic diagram of the back side of the medicine box of the present invention.

[0043] Figure 4 It is a top view schematic diagram of the slider of the present invention.

[0044] Figure 5 It is a schematic diagram of the swing of the baffle of the present invention.

[0045] Figure 6 It is a schematic diagram of the pipeline cross section of the present invention.

[0046] Figure 7 Schematic diagram of the first track of the present invention.

[0047] Figure 8 It is a schematic diagram of the structure of the net bag of the present invention.

[0048] Fig. 9 It is a schematic diagram of the circular hoop structure of the present invention.

[0049] Fig.10 It is a schematic diagram of the outer ring swing structure of the present invention.

[0050] Figure 1-10 Middle: 1-scaffolding, 101-sliding arm, 102-elastic band, 103-round hoop, 104-connecting rope, 105-net bag, 2-medicine box, 201-pipeline, 202-sealing cover, 203-dosing tray, 3-slider, 301-axis arm, 302-through axis, 303-rotating shaft, 304-baffle, 4-connecting rod, 401-first track, 402-second track, 5-outer ring, 501-ball, 502-block. DETAILED DESCRIPTION

[0051] See also Figure 1-10 In the embodiment of the present invention,

[0052] Embodiment 1: A device for promoting the survival of hard-to-relocate old trees and an application method thereof, comprising a scaffold 1, wherein fastening mechanisms are provided on both sides of the scaffold 1, the fastening mechanisms comprising a sliding arm 101, an elastic band 102, a hoop 103, a connecting rope 104 and a net bag 105, wherein the sliding arm 101 is slidably sleeved on one side of the scaffold 1, the elastic band 102 is elastically connected to the other side of the scaffold 1, the hoop 103 is distributed on both sides of the lower end of the scaffold 1, the connecting rope 104 is slidably nested in the lower end of the hoop 103, and the net bag 105 is embedded in the lower end of the connecting rope 104;

[0053] Among them: a scaffold 1 and a sliding arm 101, the sliding arm 101 slides horizontally on the outside of the scaffold 1, the outside of the scaffold 1 is penetrated by holes, and the upper end of the sliding arm 101 is provided with an activation component;

[0054] The outer side of the scaffolding 1 is penetrated with a hole. After the sliding arm 101 is slid and fixed, bolts are passed through the inside of the hole. The bolts pass through the inside of the scaffolding 1 and the sliding arm 101 in turn, so that the sliding arm 101 is conveniently connected and fixed to the scaffolding 1;

[0055] The lower end of the scaffolding 1 is spirally connected to the tripod. After the old tree is transplanted, the lower end of the scaffolding 1 is spirally connected to the tripod to facilitate the installation and fixing of the scaffolding 1 on the ground, and at the same time, it is convenient for the scaffolding 1 to form support for the outside of the old tree;

[0056] The elastic band 102 is in a semicircular shape and arranged horizontally;

[0057] The elastic band 102 and the net bag 105 are both made of rubber, and the elastic band 102 is wrapped around the outside of the ancient tree;

[0058] The hoop 103 and the connecting rope 104 are hollow inside, the hoop 103 and the connecting rope 104 are vertically slidably nested, the upper end of the connecting rope 104 is in a shape of a work, and the net bag 105 is connected to the hoop 103 through the connecting rope 104;

[0059] The inside of the hoop 103 is hollow, so that the connecting rope 104 can be easily embedded in the inside of the hoop 103;

[0060] The connecting rope 104 is made of nylon;

[0061] The net bag 105 has holes running through it, and the diameter of the holes is 1-5 cm;

[0062] The net bag 105 has holes running through it, and the diameter of the holes is 1-5 cm. The trunk and branches of the ancient tree run through the holes, so that the net bag 105 can wrap the trunk and branches of the ancient tree.

[0063] Wherein: after the ancient tree is excavated, the scaffolding 1 is manually wrapped around the outside of the ancient tree, the sliding arm 101 is slid around the outside of the scaffolding 1 according to the diameter of the ancient tree, and the elastic band 102 is wrapped around the outside of the ancient tree, and bolts are passed through the holes, and the bolts are passed through the inside of the scaffolding 1 and the sliding arm 101 in turn, so that the sliding arm 101 is conveniently connected and fixed to the scaffolding 1. At this time, the scaffolding 1 can limit the outside of the ancient tree according to the diameter of the ancient tree, and the net bag 105 is penetrated with holes, and the diameter of the holes is 1-5cm. The trunk and branches of the ancient tree pass through the holes, so that the net bag 105 can wrap the trunk and branches of the ancient tree.

[0064] After the ancient tree is transported, the tripod is screwed to the lower end of the scaffold 1 to facilitate the installation and fixing of the scaffold 1 on the ground, and at the same time, the scaffold 1 is convenient for supporting the outer side of the ancient tree;

[0065] Example 2: Refer to the attached manual Figure 1-7 It can be seen that the difference between Example 2 and Example 1 is that the activation component includes a medicine box 2, a connecting rod 4, a first track 401 and a second track 402, the medicine box 2 is installed on both sides of the upper end of the sliding arm 101, the first track 401 is located on both sides of the upper end of the medicine box 2, the second track 402 is located on one side of the first track 401, and the connecting rod 4 slides and extends to the outer sides of the second track 402 and the first track 401 in sequence;

[0066] Among them: medicine box 2, the medicine box 2 is filled with liquid medicine, and the liquid medicine is filled to the lower end of the first track 401, and the medicine box 2 is concave;

[0067] The liquid medicine in medicine box 2 is the liquid medicine needed to promote the revitalization of ancient trees;

[0068] The first track 401 and the second track 402 are arranged horizontally, the second track 402 is inclined at 25-60 degrees, the first track 401 is arranged horizontally, and the connecting rod 4 extends to the outside of the first track 401;

[0069] The second track 402 is inclined at 25-60 degrees, and the first track 401 is arranged horizontally. When one end of the connecting rod 4 slides on the inner side of the first track 401, the end of the connecting rod 4 close to the second track 402 slides upward, which facilitates the connecting rod 4 to slide downward on the inner side of the second track 402 by its own gravity.

[0070] The connecting rod 4, when the connecting rod 4 is in a stationary state, the connecting rod 4 is located on a side of the first track 401 close to the second track 402, and the connecting rod 4 is at the lowest point of the second track 402;

[0071] Wherein: when the slider 3 slides toward one side of the pipe 201, the connecting rods 4 on both sides of the slider 3 slide synchronously inside the first track 401 and the second track 402. At this time, the connecting rod 4 slides upward inside the second track 402. The second track 402 is inclined at 25-60 degrees, and the first track 401 is arranged horizontally, so that the connecting rod 4 can slide downward on the inner side of the second track 402 by its own gravity. Therefore, the connecting rod 4 can quickly return to its original position and slide downward when sliding upward. When the connecting rod 4 returns to its original position and slides downward, it can drive the slider 3 to slide toward the side away from the pipe 201, so that the connecting rod 4 can use inertia to assist the slider 3 to return to its original position and slide;

[0072] Example 3: Refer to the attached manual Figure 1-6 It can be known that the difference between Example 3 and Examples 1 and 2 is that the activation component also includes a pipe 201, a sealing cover 202, a medication tray 203, a slider 3, an arm 301, a through shaft 302, a rotating shaft 303 and a baffle 304. The pipe 201 passes through the lower end of one side of the medicine box 2, the sealing cover 202 is movably nested in the upper end of the medicine box 2, the medication tray 203 passes through the end of the pipe 201 away from the medicine box 2, the slider 3 slides on one end of the connecting rod 4, the arm 301 is at the end of the slider 3 close to the pipe 201, the through shaft 302 is connected to the end of the arm 301 away from the slider 3, the rotating shaft 303 rotates at both ends of the through shaft 302, and the baffle 304 swings on one side of the rotating shaft 303;

[0073] Wherein: the pipe 201 and the medication tray 203, the two sides of the pipe 201 are provided with tracks, the tracks are horizontally inclined, and the width of the two ends of the tracks differs by 1-3 cm, the width of the track at one end close to the medication tray 203 is 1-3 cm greater than the width of the other end, the pipe 201 is at the end of the medicine box 2 close to the elastic band 102, and the medication tray 203 is penetrated by holes, and the diameter of the holes is 0.1-0.4 cm;

[0074] Tracks are provided on both sides of the interior of the pipe 201. The tracks are horizontally inclined, and the width of the two ends of the tracks differs by 1-3 cm. The width of the track at one end close to the medication tray 203 is 1-3 cm greater than the width of the other end. Therefore, when the baffles 304 slide along the inside of the track toward the side away from the medication tray 203, the distance between the baffles 304 becomes smaller. At this time, the baffles 304 are tilted and swung through the rotating shaft 303. The swing angle can be referred to in the attached manual. Figure 5 As shown;

[0075] The medication tray 203 has holes running through it, and the diameter of the holes is 0.1-0.4 cm. The drug solution drips through the holes inside the medication tray 203 to the outside of the medicine box 2;

[0076] The slider 3 has two sides connected to the connecting rod 4. The slider 3 is triangular in shape. The side of the slider 3 close to the pipe 201 is flat, and the side of the slider 3 away from the pipe 201 is an inclined surface.

[0077] The side of the slider 3 close to the pipe 201 is a plane, and the side of the slider 3 away from the pipe 201 is an inclined surface, so the impact force of the liquid medicine on the plane of the slider 3 is greater than the impact force of the inclined surface of the slider 3, and when the liquid medicine impacts the inclined surface of the slider 3, the slider 3 as a whole slides toward the side of the pipe 201, and when the liquid medicine impacts the plane of the slider 3, the slider 3 as a whole slides toward the side away from the pipe 201;

[0078] The shaft arm 301 and the through shaft 302, the shaft arm 301 extends to the inside of the pipe 201, the rotating shaft 303, the through shaft 302 and the baffle 304 are all inside the pipe 201, when the slider 3 slides, the shaft arm 301 slides synchronously, and the through shaft 302 is arranged vertically;

[0079] The through shaft 302 is arranged vertically, and the arrangement direction of the rotating shaft 303 is the same as that of the through shaft 302;

[0080] The baffle 304 and the rotating shaft 303 are matched with the baffle 304. The baffle 304 swings on both sides of the through-shaft 302. The baffles 304 on both sides of the through-shaft 302 swing in opposite directions. The baffle 304 is semicircular, and the swing angle of the baffle 304 is 15-90°.

[0081] The baffle 304 is semicircular, so the baffles 304 on both sides of the through-shaft 302 are combined to form a circle, which can form a seal for the inside of the pipe 201;

[0082] The swing angle of the baffle 304 is 15-90°, and the maximum swing angle of the baffle 304 through the rotating shaft 303 is 90°. Therefore, when the baffle 304 slides as a whole to the end of the pipe 201 close to the medication tray 203, the baffle 304 cannot swing toward the end of the medication tray 203, so that the baffle 304 can close the inside of the pipe 201.

[0083] When the liquid medicine hits the inclined surface of the slider 3, the slider 3 slides toward one side of the pipe 201 as a whole, and the slider 3 drives the baffle 304 to slide toward the inside of the pipe 201 through the through shaft 302. Because the width of one end of the track close to the medication tray 203 is 1-3 cm greater than the width of the other end, when the baffle 304 slides toward the inside of the pipe 201, the baffle 304 is stretched into a circular shape by the track as a whole. At this time, the baffle 304 can form a seal on the inside of the pipe 201 to prevent the liquid medicine from being discharged from the inside of the medicine box 2 through the pipe 201;

[0084] The rotating shaft 303 and the baffle 304 are matched, so the baffle 304 can swing horizontally through the rotating shaft 303, so that the baffles 304 on both sides of the through-shaft 302 swing in opposite directions;

[0085] Among them: when the sliding arm 101 slides on one side of the scaffold 1, the medicine box 2 on the upper end of the sliding arm 101 slides synchronously, and the medicine liquid inside the medicine box 2 first hits the inclined surface of the slider 3 due to inertia. When the medicine liquid hits the inclined surface of the slider 3, the slider 3 slides toward one side of the pipeline 201 as a whole, and the slider 3 drives the baffle 304 to slide toward the inside of the pipeline 201 through the through shaft 302. Because the width of one end of the track close to the medication tray 203 is 1-3 cm greater than the width of the other end, when the baffle 304 slides toward the inside of the pipeline 201, the baffle 304 is stretched into a circular shape by the track as a whole. At this time, the baffle 304 can form a seal on the inside of the pipeline 201 to prevent the medicine liquid from being discharged from the inside of the medicine box 2 through the pipeline 201;

[0086] After the sliding arm 101 stops sliding, the medicine liquid impacts the side away from the pipe 201 due to inertia. At this time, the medicine liquid impacts the flat end of the slider 3, and the slider 3 slides toward the side away from the pipe 201 as a whole. The slider 3 can drive the through shaft 302 to slide inside the pipe 201 through the shaft arm 301. Tracks are provided on both sides of the inside of the pipe 201. The tracks are horizontally inclined, and the width difference between the two ends of the track is 1-3cm. The width of one end of the track close to the medication tray 203 is greater than the width of the other end by 1-3cm. Therefore, when the baffle 304 slides with the inside of the track toward the side away from the medication tray 203, the distance between the baffles 304 becomes smaller. At this time, the baffle 304 is tilted and swung through the rotating shaft 303;

[0087] After the baffle 304 is tilted and swung, the liquid medicine can flow through the inside of the pipe 201 to the outside of the medicine box 2, and then drip medicine to the roots of the old trees, helping to promote the revitalization of the old trees, so that the revitalization component can use the inertia of the liquid medicine to quickly drip medicine to the old trees;

[0088] When the sliding arm 101 is in a static state as a whole, the liquid medicine cannot impact the inclined surface of the slider 3, and the connecting rods 4 on both sides of the upper end of the slider 3 are at the lower part of the second track 402, which can limit the position of the slider 3 and prevent the slider 3 from returning to its original position through the shaft arm 301 to assist the baffle 304;

[0089] Example 4: Refer to the attached manual Figure 1 , 8 -10 It can be seen that the difference between Example 4 and Example 1-3 is that the outer side of the hoop 103 rotates with the outer ring 5, the inner side of the hoop 103 swings with the ball 501, and the side of the ball 501 away from the outer ring 5 swings with the block 502;

[0090] Among them: the outer ring 5 and the ball 501, the ball 501 and the inner wall of the outer ring 5 swing and rub, when the outer ring 5 rotates, the ball 501 rotates synchronously, one side of the clamping block 502 is horizontally clamped with the upper end of the connecting rope 104, and the clamping block 502 is triangular;

[0091] Wherein: manually rotate the outer ring 5 clockwise, the outer ring 5 rubs against the outside of the ball 501, the ball 501 rotates synchronously, and the block 502 on one side of the ball 501 rotates synchronously. At this time, the block 502 cannot form a clamping connection with the connecting rope 104, so it is convenient to take the connecting rope 104 out of the inner side of the hoop 103. Please refer to the attached manual for details. Fig.10 As shown, the net bag 105 and the connecting rope 104 can be easily taken out from the lower end of the scaffold 1, which is convenient for the subsequent transplantation of the ancient tree;

[0092] The upper end of the connecting rope 104 is in the shape of a work, and the upper end of the connecting rope 104 is embedded in the hoop 103. The outer ring 5 is manually rotated counterclockwise, and the outer ring 5 is rubbed to the outside of the ball 501. The ball 501 rotates synchronously, and the block 502 on one side of the ball 501 rotates synchronously. At this time, the block 502 forms a clamping connection with the outside of the connecting rope 104, so that the connecting rope 104 is conveniently installed on one end of the scaffolding 1, and the net bag 105 is convenient for protecting the trunk and branches of the ancient tree;

[0093] Embodiment 5: The application method comprises the following steps. The specific operation steps are as follows:

[0094] S1: After the ancient tree is excavated, the scaffold 1 is manually wrapped around the outside of the ancient tree, and the upper end of the connecting rope 104 is embedded in the hoop 103 by using the upper end of the connecting rope 104 in a working shape, and the outer ring 5 is manually rotated counterclockwise, and the outer ring 5 rubs against the outside of the ball 501, and the ball 501 rotates synchronously, and the block 502 on one side of the ball 501 rotates synchronously, and at this time, the block 502 forms a clamping connection with the outside of the connecting rope 104;

[0095] S2: The net bag 105 is penetrated with holes with a diameter of 1-5 cm. The trunk and branches of the ancient tree are penetrated through the holes, so that the net bag 105 can wrap the trunk and branches of the ancient tree.

[0096] S3: After the ancient tree is transported, the tripod is screwed to the lower end of the scaffold 1 to facilitate the installation and fixing of the scaffold 1 on the ground, and at the same time, the scaffold 1 is convenient for supporting the outer side of the ancient tree. The outer ring 5 is manually rotated clockwise, and the outer ring 5 rubs against the outer side of the ball 501. The ball 501 rotates synchronously, and the block 502 on one side of the ball 501 rotates synchronously. At this time, the block 502 cannot form a clamping connection with the connecting rope 104, so it is convenient to take out the connecting rope 104 and the net bag 105 from the inner side of the hoop 103;

[0097] S4: After the old tree is transplanted, the medicine box 2 is filled with liquid medicine, and then the sliding arm 101 is slid outside the scaffold 1 according to the diameter of the old tree, and the elastic band 102 is wrapped around the outside of the old tree. Bolts are passed through the holes, and the bolts pass through the inside of the scaffold 1 and the sliding arm 101 in turn, so that the sliding arm 101 is conveniently connected and fixed to the scaffold 1;

[0098] S5: When the slide arm 101 slides on one side of the scaffold 1, the medicine box 2 on the upper end of the slide arm 101 slides synchronously. The liquid medicine in the medicine box 2 first hits the inclined surface of the slider 3 due to inertia. When the liquid medicine hits the inclined surface of the slider 3, the slider 3 slides toward one side of the pipe 201 as a whole. The slider 3 drives the baffle 304 to slide toward the inside of the pipe 201 through the through shaft 302. Because the width of one end of the track close to the medication tray 203 is 1-3 cm greater than the width of the other end, when the baffle 304 slides toward the inside of the pipe 201, the baffle 304 is stretched into a circular shape by the track as a whole. At this time, the baffle 304 can form a seal on the inside of the pipe 201 to prevent the liquid medicine from being discharged from the inside of the medicine box 2 through the pipe 201;

[0099] S6: After the sliding arm 101 stops sliding, the liquid medicine impacts the side away from the pipe 201 due to inertia. At this time, the liquid medicine impacts the flat end of the slider 3, and the slider 3 slides as a whole toward the side away from the pipe 201. The slider 3 can drive the through shaft 302 to slide inside the pipe 201 through the shaft arm 301;

[0100] S7: Tracks are arranged on both sides of the inside of the pipe 201, the tracks are horizontally inclined, and the width of the two ends of the tracks differs by 1-3 cm. The width of the track at one end close to the medication tray 203 is 1-3 cm greater than the width of the other end. Therefore, when the baffles 304 slide along the inside of the track toward the side away from the medication tray 203, the distance between the baffles 304 becomes smaller, and at this time, the baffles 304 are tilted and swung through the rotating shaft 303;

[0101] S8: After the baffle 304 is tilted and swung, the liquid medicine can flow through the inside of the pipe 201 to the outside of the medicine box 2, and then drip medicine to the roots of the old tree to help promote the revitalization of the old tree. When the sliding arm 101 is in a static state as a whole, the liquid medicine cannot impact the inclined surface of the slider 3, and the connecting rods 4 on both sides of the upper end of the slider 3 are at the lower part of the second track 402, which can limit the position of the slider 3.

[0102] S9: When the slider 3 slides toward one side of the pipe 201, the connecting rods 4 on both sides of the slider 3 slide synchronously inside the first track 401 and the second track 402. At this time, the connecting rod 4 slides upward inside the second track 402. The second track 402 is inclined at 25-60 degrees, and the first track 401 is arranged horizontally, so that the connecting rod 4 can slide downward on the inner side of the second track 402 by its own gravity. Therefore, the connecting rod 4 can quickly return to its original position and slide downward when sliding upward. When the connecting rod 4 returns to its original position and slides downward, it can drive the slider 3 to slide toward the side away from the pipe 201, so that the connecting rod 4 can use inertia to assist the slider 3 to return to its original position and slide;

[0103] Through the above steps, the ancient tree is transplanted and revitalized. The block 502 can be used to facilitate the quick installation and disassembly of the connecting rope 104 and the scaffolding 1, thereby facilitating the quick installation and disassembly of the net bag 105 and the scaffolding 1, avoiding the need to cut the existing net bag 105 and take it out from the bottom of the ancient tree.

[0104] The above are only preferred embodiments of the present invention. It should be pointed out that, for those skilled in the art, several modifications and improvements can be made without departing from the concept of the present invention. These should also be regarded as the protection scope of the present invention. These will not affect the effect of the implementation of the present invention and the practicality of the patent.

Claims

1. A device for promoting the survival of old trees that are difficult to relocate, comprising a scaffold (1), characterized in that: The scaffold (1) is provided with a fastening mechanism on both sides, the fastening mechanism comprising a sliding arm (101), an elastic band (102), a round hoop (103), a connecting rope (104) and a net bag (105); the sliding arm (101) is slidably sleeved on one side of the scaffold (1); the elastic band (102) is elastically connected to the other side of the scaffold (1); the round hoop (103) is distributed on both sides of the lower end of the scaffold (1); the connecting rope (104) is slidably nested in the lower end of the round hoop (103); and the net bag (105) is embedded in the lower end of the connecting rope (104); The sliding arm (101) slides horizontally on the outer side of the scaffold (1), the outer side of the scaffold (1) is penetrated by a hole, and the upper end of the sliding arm (101) is provided with an activation component; The activation promoting component comprises a medicine box (2), a connecting rod (4), a first track (401) and a second track (402); the medicine box (2) is mounted on both sides of the upper end of the sliding arm (101); the first track (401) is located on both sides of the upper end of the medicine box (2); the second track (402) is located on one side of the first track (401); and the connecting rod (4) slides and extends to the outer sides of the second track (402) and the first track (401) in sequence; The activation promoting component further comprises a pipe (201), a sealing cover (202), a medication tray (203), a slider (3), an arm (301), a through shaft (302), a rotating shaft (303) and a baffle (304); the pipe (201) passes through the lower end of one side of the medicine box (2); the sealing cover (202) is movably nested in the upper end of the medicine box (2); the medication tray (203) passes through the end of the pipe (201) away from the medicine box (2); the slider (3) slides on one end of the connecting rod (4); the arm (301) is located at one end of the slider (3) close to the pipe (201); the through shaft (302) is connected to one end of the arm (301) away from the slider (3); the rotating shaft (303) rotates at both ends of the through shaft (302); and the baffle (304) swings on one side of the rotating shaft (303).

2. The device for promoting the survival of old trees that are difficult to relocate according to claim 1 is characterized in that: An elastic band (102), the elastic band (102) is in a semicircular arc shape, and the elastic band (102) is arranged horizontally; The circular hoop (103) and the connecting rope (104), the interior of the circular hoop (103) is hollow, the circular hoop (103) and the connecting rope (104) are vertically slidably nested, the upper end of the connecting rope (104) is in a shape of a workpiece, and the net bag (105) is connected to the circular hoop (103) via the connecting rope (104); The net bag (105) has holes running through the inside thereof, and the diameter of the holes is 1-5 cm.

3. The device for promoting the survival of old trees that are difficult to relocate according to claim 2 is characterized in that: The medicine box (2) is filled with liquid medicine, and the liquid medicine is filled to the lower end of the first track (401), and the medicine box (2) is concave; The first track (401) and the second track (402) are arranged in a transverse direction, the second track (402) is inclined at 25-60 degrees, the first track (401) is arranged in a horizontal direction, and the connecting rod (4) extends to the outside of the first track (401); The connecting rod (4) is located at a side of the first track (401) close to the second track (402) when the connecting rod (4) is in a stationary state, and the connecting rod (4) is located at the lowest point of the second track (402).

4. The device for promoting the survival of old trees that are difficult to relocate according to claim 3 is characterized in that: Tracks are provided on both sides of the interior of the pipe (201), the tracks are horizontally inclined, and the widths of the two ends of the tracks differ by 1-3 cm, the width of one end of the track close to the medication tray (203) is 1-3 cm greater than the width of the other end, the pipe (201) is located at one end of the medicine box (2) close to the elastic band (102), and the medication tray (203) is penetrated by a hole, the diameter of the hole is 0.1-0.4 cm.

5. The device for promoting the survival of old trees that are difficult to relocate according to claim 4 is characterized in that: Both sides of the slider (3) are connected to the connecting rod (4); the slider (3) is triangular in shape; the side of the slider (3) close to the pipe (201) is flat, and the side of the slider (3) away from the pipe (201) is an inclined surface; A shaft arm (301) and a through shaft (302), wherein the shaft arm (301) extends into the interior of the pipe (201), the rotating shaft (303), the through shaft (302) and the baffle (304) are all located inside the pipe (201), and when the slider (3) slides, the shaft arm (301) slides synchronously, and the through shaft (302) is arranged vertically; The baffle (304) and the rotating shaft (303) are matched with the baffle (304), the rotating shaft (303) and the baffle (304) are swingable on both sides of the through-shaft (302), the swinging directions of the baffles (304) on both sides of the through-shaft (302) are opposite, the baffle (304) is semicircular, and the swinging angle of the baffle (304) is 15-90 degrees.

6. The device for promoting the survival of old trees that are difficult to relocate according to claim 5 is characterized by: An outer ring (5) is rotatably disposed on the outer side of the circular hoop (103), a round ball (501) is swingably disposed on the inner side of the circular hoop (103), and a clamping block (502) is swingably disposed on the side of the round ball (501) away from the outer ring (5).

7. The device for promoting the survival of old trees that are difficult to relocate according to claim 6 is characterized by: The ball (501) and the inner wall of the outer ring (5) are swung and rubbed against each other. When the outer ring (5) rotates, the ball (501) rotates synchronously. One side of the clamping block (502) is horizontally clamped with the upper end of the connecting rope (104). The clamping block (502) is triangular in shape.

8. An application method of a device for promoting the survival of old trees that are difficult to relocate, characterized in that: According to the device for promoting the survival of old trees that are difficult to relocate as described in any one of claims 6 or 7, the application method comprises the following steps: S1: After the ancient tree is excavated, the scaffold (1) is manually placed around the outside of the ancient tree, and the upper end of the connecting rope (104) is inserted into the inner part of the hoop (103) by making the upper end of the connecting rope (104) into a work shape. The outer ring (5) is manually rotated counterclockwise, and the outer ring (5) is rubbed against the outer side of the ball (501). The ball (501) rotates synchronously, and the clamping block (502) on one side of the ball (501) rotates synchronously. At this time, the clamping block (502) is clamped to the outer side of the connecting rope (104); S2: The net bag (105) has holes extending therethrough, and the diameter of the holes is 1-5 cm. The trunk and branches of the ancient tree extend through the holes, so that the net bag (105) can wrap the trunk and branches of the ancient tree. S3: After the ancient tree is transported, the tripod is screwed to the lower end of the scaffold (1) to facilitate the installation and fixing of the scaffold (1) on the ground, and at the same time, facilitate the scaffold (1) to support the outer side of the ancient tree. The outer ring (5) is manually rotated clockwise, and the outer ring (5) rubs against the outer side of the ball (501). The ball (501) rotates synchronously, and the block (502) on one side of the ball (501) rotates synchronously. At this time, the block (502) cannot form a clamping connection with the connecting rope (104), so that the connecting rope (104) and the net bag (105) can be easily taken out from the inner side of the hoop (103); S4: After the old tree is transplanted, the medicine box (2) is filled with medicine liquid, and then the sliding arm (101) is slid on the outside of the scaffold (1) according to the diameter of the old tree, and the elastic band (102) is wrapped around the outside of the old tree. Bolts are inserted into the holes, and the bolts are sequentially inserted into the inside of the scaffold (1) and the sliding arm (101), so that the sliding arm (101) and the scaffold (1) are conveniently connected and fixed; S5: When the sliding arm (101) slides on one side of the scaffold (1), the medicine box (2) on the upper end of the sliding arm (101) slides synchronously. The medicine liquid in the medicine box (2) first impacts the inclined surface of the sliding block (3) due to inertia. When the medicine liquid impacts the inclined surface of the sliding block (3), the sliding block (3) as a whole slides toward one side of the pipeline (201). The sliding block (3) drives the baffle (304) to slide toward the inside of the pipeline (201) through the through shaft (302). Because the width of one end of the track close to the medication tray (203) is 1-3 cm greater than the width of the other end, when the baffle (304) slides toward the inside of the pipeline (201), the baffle (304) as a whole is stretched into a circular shape by the track. At this time, the baffle (304) can form a seal on the inside of the pipeline (201), thereby preventing the medicine liquid from being discharged from the inside of the medicine box (2) through the pipeline (201); S6: After the sliding arm (101) stops sliding, the liquid medicine impacts the side away from the pipe (201) due to inertia. At this time, the liquid medicine impacts the plane end of the slider (3), and the slider (3) as a whole slides towards the side away from the pipe (201). The slider (3) can drive the through shaft (302) to slide inside the pipe (201) through the shaft arm (301); S7: Tracks are provided on both sides of the interior of the pipe (201), the tracks are horizontally inclined, and the widths of the two ends of the tracks differ by 1-3 cm. The width of one end of the track close to the medication tray (203) is 1-3 cm greater than the width of the other end. Therefore, when the baffles (304) slide along the interior of the track toward the side away from the medication tray (203), the distance between the baffles (304) becomes smaller. At this time, the baffles (304) are tilted and swung through the rotating shaft (303); S8: After the baffle (304) is tilted and swung, the liquid medicine can flow through the inside of the pipe (201) to the outside of the medicine box (2), thereby dripping medicine on the roots of the old tree, thereby helping to promote the revitalization of the old tree. When the sliding arm (101) is in a static state as a whole, the liquid medicine cannot impact the inclined surface of the slider (3), and the connecting rods (4) on both sides of the upper end of the slider (3) are at the lower part of the second track (402), which can limit the position of the slider (3); S9: When the slider (3) slides toward one side of the pipe (201), the connecting rods (4) on both sides of the slider (3) slide synchronously inside the first track (401) and the second track (402). At this time, the connecting rod (4) slides upward inside the second track (402). The second track (402) is inclined at 25-60 degrees, and the first track (401) is arranged horizontally, so that the connecting rod (4) can slide downward on the inner side of the second track (402) by its own gravity. Therefore, the connecting rod (4) can quickly return to its original position and slide downward when sliding upward. When the connecting rod (4) returns to its original position and slides downward, it can drive the slider (3) to slide toward the side away from the pipe (201), so that the connecting rod (4) can use inertia to assist the slider (3) to return to its original position and slide.

Images