Building construction green belt root system self-repairing protection structure

Abstract

The invention provides a building construction green belt root system self-repairing protection structure, and relates to the technical field of root system repairing. An inner fixing part is arranged in the enclosure part; a separation part is arranged in the enclosure part; an inner supporting part is arranged below the separation part; the inner space of the enclosure plate is ingeniously layered through the partition supporting plates, the upper space is used for green plant cultivation, the lower soilless area is used for root system oxygen uptake and drainage treatment, self-repairing treatment of root systems is facilitated in the cultivation process, and the connecting grooves in the partition supporting plates are combined with the outer hanging rods, so that when large-scale green plants are transplanted, the large-scale green plants can be transplanted conveniently. The lifting mode can accurately control the movement of green plants, avoids pulling and extruding of root systems caused by manual carrying, ensures the integrity of the root systems, improves the transplanting survival rate, and solves the problems that when the device is in contact with irrigation water, the end positions are easy to soak, and the root system repairing mechanism of the plants is difficult to stimulate after long-time soaking in a humid environment; and the overall arrangement progress and the landscape effect of the green belt are greatly influenced.

Description

Technical Field

[0001] The present invention relates to the technical field of root repair, in particular to a root self-repair protection structure for a green belt in a construction site. Background Art

[0002] Against the backdrop of coordinated development of urban construction and ecological environment, the importance of construction green belts has become increasingly prominent. It is not only related to the aesthetics of the urban landscape, but also a key link in the stable operation of the ecosystem. For plants in green belts, the root system is responsible for fixing the plants and absorbing water and nutrients. A healthy and developed root system can ensure that the plants are firmly rooted in the soil and resist the invasion of natural forces such as wind and rain. When the root system is damaged, the plant's ability to absorb water and nutrients will drop significantly, which will not only greatly reduce the landscape effect of the green belt, but also weaken its ecological function. In order to ensure the normal growth of green plants, a root self-repair protection structure is needed.

[0003] In the construction of green belts in traditional construction, the transplanting of green plants is a key link. When green plants are transplanted from the outside, the ends of their rhizomes are extremely susceptible to external collisions and mechanical damage during excavation, transportation and subsequent planting operations. After the ends of the plant rhizomes are damaged, their physiological functions are destroyed. Since the ends are easily soaked when in contact with irrigation water, it is difficult to stimulate the plant's own root repair mechanism if it is soaked in a humid environment for a long time, resulting in a slow or even stagnant root repair process. This not only prolongs the adaptation period of the plant after transplantation, making it difficult to quickly take root and integrate into the new environment, but also greatly affects the overall layout progress and landscape effect of the green belt. Summary of the Invention

[0004] The present invention relates to a root self-repair protection structure for a green belt in a construction project. The structure comprises a partition portion. The partition support plate cleverly divides the internal space of the encircling plate into layers. The upper space is used for green plant cultivation, and the soilless area below is used for root oxygen absorption and drainage treatment, so that the root system can self-repair during the cultivation process. The connecting groove on the partition support plate is combined with an external suspension rod, and the top suspension ring is connected to an external crane. When transplanting large green plants, this lifting method can accurately control the movement of the green plants, avoid pulling and squeezing of the roots during manual handling, ensure the integrity of the root system, and improve the survival rate of transplantation.

[0005] The present invention provides a root self-repair protection structure for a green belt under construction, which specifically includes: a circle portion; the circle portion includes a circle plate; the circle plate is configured as a flexible plate structure; the inner side of the circle plate is provided with an array of internal resistance grooves; the interior of the circle portion is provided with an internal fixing portion; the internal fixing portion includes a reinforcement bar; the reinforcement bar is inserted into the circle plate bent into a non-bending full cylindrical structure; the interior of the circle portion is provided with a partition portion; the partition portion includes a partition support plate; the partition support plate is inserted into the circle plate bent into a non-bending full cylindrical structure; a water leakage groove is circumferentially provided on the partition support plate; a connecting groove is circumferentially provided on the partition support plate; an external hanger is inserted into the connecting groove; an internal support portion is provided below the partition portion; the internal support portion includes an internal connecting block; four groups of circumferentially distributed side connecting screws are fixed to the outer wall of the internal connecting block; the outer sides of the four groups of side connecting screws are respectively provided with internal support rods; the end positions of the four groups of internal support rods are respectively fixed with external leakage plug-in blocks.

[0006] Preferably, the circle plate needs to be bent into an incomplete cylindrical structure when in use; external resistance blocks distributed in an array are fixedly connected to the outer wall of the circle plate; and the external resistance blocks are arranged as a truncated cone structure.

[0007] Preferably, the internal resistance groove is arranged inside the external resistance block, and the internal resistance groove is connected with a through hole; the circle plate is provided with docking jacks distributed in an array; two groups of splicing grooves are provided at the edge of the circle plate; the splicing grooves are connected with locking grooves.

[0008] Preferably, an auxiliary portion is provided inside the encircling portion; the auxiliary portion includes a docking bar; the docking bar is configured as a cross-bar structure; and the docking bar is inserted inside the two sets of splicing grooves.

[0009] Preferably, the docking strip is provided with mating pin holes at equal intervals; the mating pin holes are aligned with the locking grooves; an internal resistance block is inserted into the internal resistance groove; the internal resistance block is provided with a truncated cone-shaped structure, and the inner side of the internal resistance block is provided with an arc-shaped groove; a guide groove is provided in the arc-shaped groove of the internal resistance block.

[0010] Preferably, the reinforcement strip is configured as a long strip structure, with a long strip protrusion fixedly connected to the inner side of the reinforcement strip; auxiliary adjustment grooves are equidistantly provided on the long strip protrusion of the reinforcement strip; an external solid block is fixedly connected to the outer wall of the reinforcement strip; the external solid block is configured as a cylindrical structure, with a truncated cone-shaped protrusion provided at the end position of the external solid block, a cross-shaped groove is provided on the external solid block, and the external solid block is inserted into the inside of the docking socket.

[0011] Preferably, the partition support plate is configured as a disc-shaped structure, and a cylindrical protrusion is fixed to the bottom of the partition support plate; the cross-section of the leakage groove is a Y-shaped structure; the connecting groove is configured as a circular through hole; a docking slot is provided at the bottom of the partition support plate; the docking slot is configured as a hexagonal groove; the outer suspension rod is configured as a cylindrical rod-shaped structure, a block is fixed to the bottom of the outer suspension rod, and a hanging ring is provided at the top of the outer suspension rod.

[0012] Preferably, the internal block is arranged below the partition support plate; the internal block is arranged as a cylindrical structure, the top of the internal block is fixed with a hexagonal prism protrusion, and the hexagonal prism protrusion on the top of the internal block is inserted into the docking slot; the bottom of the internal block is fixed with a fixed rod; the fixed rod is arranged as a cylindrical structure, and the fixed rod is provided with a conical protrusion; the four groups of side screws are arranged as threaded rod structures.

[0013] Preferably, the four groups of inner support rods are arranged as cylindrical structures, and a torsion cylinder is fixedly connected to the outer wall of the four groups of inner support rods; the interiors of the four groups of inner support rods are respectively provided with matching screw grooves; the four groups of matching screw grooves are arranged as threaded grooves, and the four groups of inner support rods are respectively connected to the corresponding side screw rods through the matching screw groove threads; the interiors of the four groups of external leakage plug-ins are hollow structures, and the four groups of external leakage plug-ins are respectively inserted into the corresponding internal resistance grooves.

[0014] The root self-repair protection structure for green belts in construction provided by the present invention has the following beneficial effects:

[0015] In the present invention, the circle plate constructs a clear boundary of the transplanting area, and its outer wall is an array of frustum-shaped external resistance blocks, which can effectively block the water outside the divided range from flowing inward, avoid excessive external water influx, create a dry and suitable rooting environment for transplanted green plants, and greatly improve the rooting success rate.

[0016] In addition, the partition support plates of the dividing part cleverly divide the internal space of the circle plate into layers. The upper space is used for green plant cultivation, providing a soil environment for the root system, and the soilless area below becomes a "green channel" for the root system to absorb oxygen and drain water. The Y-shaped cross-section drainage trough uses the inclined surface to effectively prevent the loss of top soil during drainage, ensuring soil fertility and root attachment. In some green plant transplants that require high soil permeability, the green plant root system is made more developed.

[0017] In addition, the combination of the connecting groove on the partition support plate and the external lifting rod provides safety for the transplanting and lifting of green plants. During lifting, the bottom of the external lifting rod is passed through the connecting groove, and its top lifting ring is connected to the external crane. When transplanting large green plants, this lifting method can accurately control the movement of green plants, avoid pulling and squeezing the roots caused by manual handling, ensure the integrity of the root system, and improve the survival rate of transplantation. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings of the embodiments are briefly introduced below.

[0019] The drawings described below only relate to some embodiments of the present invention, but are not intended to limit the present invention.

[0020] In the attached figure:

[0021] Figure 1 A schematic diagram of a three-dimensional assembly structure according to an embodiment of the present invention is shown;

[0022] Figure 2 A schematic diagram of a bottom-view structure of a three-dimensional assembly according to an embodiment of the present invention is shown;

[0023] Figure 3 A schematic diagram showing a decomposition structure according to an embodiment of the present invention;

[0024] Figure 4 A schematic diagram of an exploded bottom-up structure according to an embodiment of the present invention is shown;

[0025] Figure 5 A schematic diagram of a partially cutaway structure according to an embodiment of the present invention is shown;

[0026] Figure 6 The embodiment of the present invention is shown. Figure 5 The schematic diagram of the enlarged structure of part A is shown;

[0027] Figure 7 The embodiment of the present invention is shown. Figure 5 The schematic diagram of the enlarged structure of part B is shown;

[0028] Figure 8 A schematic diagram showing an assembly structure of a circle portion according to an embodiment of the present invention is shown;

[0029] Figure 9 A schematic diagram showing an auxiliary part assembly structure according to an embodiment of the present invention is shown;

[0030] Figure 10 A schematic diagram showing an inner fixing part assembly structure according to an embodiment of the present invention is shown;

[0031] Figure 11 A schematic diagram showing a partition assembly structure according to an embodiment of the present invention is shown;

[0032] Figure 12 A schematic diagram of an inner support assembly structure according to an embodiment of the present invention is shown.

[0033] Reference Signs List

[0034] 1. Ring part; 101. Ring plate; 102. External resistance block; 103. Internal resistance slot; 104. Docking jack; 105. Splicing slot; 106. Locking slot;

[0035] 2. Auxiliary part; 201. Docking strip; 202. Matching pin hole; 203. Internal resistance plug; 204. Guide groove;

[0036] 3. Inner reinforcement; 301. Reinforcement strip; 302. Auxiliary adjustment groove; 303. External reinforcement block;

[0037] 4. Partition; 401. Partition support plate; 402. Drain groove; 403. Connecting groove; 404. Docking slot; 405. External suspension rod;

[0038] 5. Internal support part; 501. Internal connecting block; 502. Fixed plug rod; 503. Side screw rod; 504. Internal support rod; 505. Matching screw groove; 506. External leakage plug block. DETAILED DESCRIPTION

[0039] The embodiments of the present invention are described in further detail below with reference to the accompanying drawings and examples.

[0040] Example 1: Please refer to Figures 1 to 12: The present invention proposes a root self-repair protection structure for a green belt under construction, comprising: a circle portion 1; the circle portion 1 comprises a circle plate 101; the circle plate 101 is configured as a bendable plate structure; the circle plate 101 is used to divide the transplanting position to prevent water accumulation inside; the inner side of the circle plate 101 is provided with internal resistance grooves 103 in an array; the internal resistance grooves 103 are used to cooperate with the internal resistance plug 203 to block the irrigation water to avoid excessive moisture, thereby facilitating the self-repair of the roots of green plants; an internal fixing portion 3 is provided inside the circle portion 1; the internal fixing portion 3 comprises a reinforcement strip 301; the reinforcement strip 301 is inserted into the circle plate 101 bent into a non-bent full cylindrical structure; the reinforcement strip 301 is used to The auxiliary adjustment groove 302 is bent to facilitate the external fixing block 303 to be stuck in the inside of the circle plate 101, so as to maintain its cylindrical state; a partition 4 is provided inside the circle portion 1; the partition 4 includes a partition support plate 401; the partition support plate 401 is inserted into the circle plate 101 bent into a non-bent full cylindrical structure; the partition support plate 401 is used to divide the internal space of the circle plate 101 so that the upper space can be used for green plant cultivation, which is convenient for repairing its root system, and the lower space is in a soilless area, which is convenient for the top layer of green plant roots to absorb oxygen and drain water; a water leakage groove 402 is opened in a circular shape on the partition support plate 401; the water leakage groove 402 is designed in a slanted manner, The top layer of soil is blocked to prevent soil loss while draining; a connecting groove 403 is provided on the partition support plate 401 in a circular shape; the connecting groove 403 is used to assist in the installation of an external hanging rod 405, which is convenient for it to be used to lift the green plants with an external crane through the top hanging ring to prevent damage to the root system during the transplanting process; an external hanging rod 405 is inserted into the inside of the connecting groove 403; the external hanging rod 405 is used to lift the green plants with the top hanging ring in cooperation with an external crane to prevent damage to the root system during the transplanting process; an internal support part 5 is provided below the partition part 4; the internal support part 5 includes an internal block 501; four groups of side screws 503 distributed in a circular shape are fixed to the outer wall of the internal block 501; the side screws 503 Used to assist in connecting the inner support rod 504 so as to adjust the relative position of the inner support rod 504 by cooperating with the screw groove 505; the outside of the four groups of side screw rods 503 are respectively provided with an inner support rod 504; the inner support rod 504 is used to adjust the position under the action of the cooperating screw groove 505, so as to control the leakage plug 506 to be inserted into the inside of the internal resistance groove 103, so as to facilitate the maintenance of its stability with the help of the ring plate 101; the end positions of the four groups of inner support rods 504 are respectively fixed with the leakage plug 506; the leakage plug 506 is used to cooperate with the inner support rod 504 in the internal resistance groove 103 to support the internal connection block 501, so as to facilitate its stability, and at the same time assist in the external discharge of irrigation water through the internal hollow structure, so as to facilitate its use.

[0041] Example 2: Based on Example 1, Figures 1 to 12As shown, the circle plate 101 needs to be bent into an incomplete cylindrical structure when in use; the outer wall of the circle plate 101 is fixed with external resistance blocks 102 distributed in an array; the external resistance blocks 102 are set as a truncated cone structure; the external resistance blocks 102 are used to block moisture outside the divided range to prevent it from flowing into the transplanting position, thereby facilitating the rooting of transplanted green plants.

[0042] The internal resistance groove 103 is arranged inside the external resistance block 102, and the internal resistance groove 103 is connected with a through hole; the circle plate 101 is provided with docking sockets 104 distributed in an array; the docking sockets 104 are used to assist in plugging the external solid block 303, so as to maintain the stability of the connection between the circle plate 101 and the reinforcement strip 301 under the action of the external solid block 303; two groups of splicing grooves 105 are provided at the edge of the circle plate 101; the splicing grooves 105 are used to assist in connecting with the docking strip 201, so as to facilitate the bending of the circle plate 101 into a complete cylindrical structure; the splicing grooves 105 are connected with locking grooves 106; the locking grooves 106 are used to maintain the stability of the connection between the docking strip 201 and the circle plate 101 by inserting the pin block after aligning with the matching pin hole 202.

[0043] An auxiliary part 2 is provided inside the circle part 1; the auxiliary part 2 includes a docking strip 201; the docking strip 201 is set as a cross-bar structure; the docking strip 201 is inserted into the inside of the two sets of splicing grooves 105; the docking strip 201 is used to cooperate with the splicing grooves 105 to constrain the circle plate 101 to facilitate it to maintain a cylindrical state.

[0044] The docking strip 201 is provided with mating pin holes 202 at equal intervals; the mating pin holes 202 are aligned with the locking groove 106; the mating pin holes 202 are used to maintain the stability of the connection between the docking strip 201 and the enclosure plate 101 by inserting a pin rod after being aligned with the locking groove 106; an internal resistance plug 203 is inserted into the internal resistance groove 103; the internal resistance plug 203 is provided with a truncated cone structure, and the inner side of the internal resistance plug 203 is provided with an arc-shaped groove; the internal resistance plug 203 is used to block the internal resistance groove 103 in the cultivation space to prevent liquid from leaking out; a guide groove 204 is provided in the arc-shaped groove of the internal resistance plug 203; the guide groove 204 is used to assist in positioning the plug-in direction of the internal resistance plug 203 to facilitate its forward installation.

[0045] The reinforcement strip 301 is set as a long strip structure, and a long strip protrusion is fixed to the inner side of the reinforcement strip 301; auxiliary adjustment grooves 302 are equidistantly provided on the long strip protrusion of the reinforcement strip 301; the auxiliary adjustment grooves 302 are used to assist the reinforcement strip 301 in bending processing, so as to facilitate its reinforcement of the circle plate 101 and maintain its stability; the outer wall of the reinforcement strip 301 is fixed with an external fixing block 303; the external fixing block 303 is set as a cylindrical structure, and a truncated cone-shaped protrusion is provided at the end position of the external fixing block 303, and a cross-shaped groove is provided on the external fixing block 303, and the external fixing block 303 is inserted into the inside of the docking socket 104; the external fixing block 303 is used to keep the circle plate 101 and the reinforcement strip 301 connected by being inserted into the docking socket 104, so as to facilitate maintaining the stability of the connection between the two.

[0046] The partition support plate 401 is configured as a disc-shaped structure, and a cylindrical protrusion is fixed to the bottom of the partition support plate 401; the cross-section of the leakage groove 402 is a Y-shaped structure; the connecting groove 403 is configured as a circular through hole; a docking slot 404 is provided at the bottom of the partition support plate 401; the docking slot 404 is configured as a hexagonal prism-shaped groove; the docking slot 404 is used to dock with the hexagonal prism-shaped protrusion on the top of the internal block 501, so as to facilitate the support treatment of the partition support plate 401 with the fixed plug 502, so as to facilitate the maintenance of stability of the green plant cultivation; the outer suspension rod 405 is configured as a cylindrical rod-shaped structure, and a block is fixed to the bottom of the outer suspension rod 405, and a hanging ring is provided at the top of the outer suspension rod 405.

[0047] The internal block 501 is set below the partition support plate 401; the internal block 501 is set to a cylindrical structure, and a hexagonal prism-shaped protrusion is fixed on the top of the internal block 501. The hexagonal prism-shaped protrusion on the top of the internal block 501 is inserted into the docking slot 404; the internal block 501 is used to cooperate with the fixed plug rod 502 to support the partition support plate 401 and the green plant, so as to facilitate its stability and the self-repair of its root system. At the same time, it cooperates with the side screw 503 and the internal support rod 504 to The connection is made in rows to increase the stability between the internal block 501 and the partition support plate 401; a fixed rod 502 is fixed to the bottom of the internal block 501; the fixed rod 502 is set to a cylindrical structure, and the fixed rod 502 is provided with a conical protrusion; the fixed rod 502 is used to assist in maintaining the stability of the internal block 501 by being inserted into the bottom soil, so as to facilitate its support treatment of the partition support plate 401 and the green plants; four sets of side screws 503 are set to a threaded rod structure.

[0048] The four groups of internal support rods 504 are set as cylindrical structures, and the outer walls of the four groups of internal support rods 504 are fixed with torsion cylinders; the interiors of the four groups of internal support rods 504 are respectively provided with matching screw grooves 505; the four groups of matching screw grooves 505 are set as threaded grooves, and the four groups of internal support rods 504 are respectively threadedly connected to the corresponding side screw rods 503 through the matching screw grooves 505; the interiors of the four groups of external leakage plug-ins 506 are hollow structures, and the four groups of external leakage plug-ins 506 are respectively inserted into the corresponding internal resistance grooves 103.

[0049] Specific usage and function of this embodiment: In the present invention, according to the actual transplanting area requirements, the flexible circle plate 101 is bent into a suitable curvature, the docking strip 201 is inserted into the splicing groove 105 on the edge of the circle plate 101, the position of the docking strip 201 is adjusted so that the matching pin hole 202 is accurately aligned with the locking groove 106, and then the pin block is inserted to firmly connect the docking strip 201 and the circle plate 101, so that the circle plate 101 forms a complete cylindrical structure, and during the splicing process, the reinforcement strip 301 is fixed to the inside of the circle plate 101 to keep the complete cylindrical structure of the circle plate 101 stable, and then the cylindrical circle plate 101 is inserted into the ground, and then the internal connection block 501 and the fixed insertion rod 502 are inserted into the bottom layer of the circle plate 101, and the inner support rod 504 and the internal resistance groove 103 are kept at the same level. On the horizontal line, the partition support plate 401 is then placed inside the circle plate 101, so that the upper layer of the partition support plate 401 is filled with soil after maintaining stability, and the green plants are cultivated. Under the action of the partition support plate 401, its bottom layer cooperates with the circle plate 101 to form a soil-free area, so that it increases the breathing of the top layer of green plants during root repair. In the process of watering the soil, the excess water is drained down through the drainage trough 402 to prevent water accumulation and root rot of the green plants. When transplanting the green plants, it is only necessary to connect the external hanging rod 405 to the external crane to cooperate with the external crane to pull the green plants out as a whole, so as to avoid the treatment by digging in the traditional transplanting process, so as to protect the self-repairing root system and prevent its root system from being damaged.

[0050] In this article, there are several points to note:

[0051] 1. The drawings of the embodiments of the present disclosure only relate to the structures related to the embodiments of the present disclosure. Other structures may refer to conventional designs.

[0052] 2. In the absence of conflict, the embodiments of the present disclosure and the features therein may be combined with each other to form new embodiments.

[0053] The above are only specific embodiments of the present disclosure, but the scope of protection of the present disclosure is not limited thereto. Any changes or substitutions that can be easily conceived by a person skilled in the art within the technical scope disclosed in this disclosure should be included in the scope of protection of the present disclosure. Therefore, the scope of protection of the present disclosure should be based on the scope of protection of the claims.

Claims

1. Root self-repair protection structure for green belts during construction, including: The ring portion (1) is characterized in that the ring portion (1) includes a ring plate (101); the ring plate (101) is configured as a bendable plate structure; the inner side of the ring plate (101) is provided with an array of internal resistance grooves (103); the inner portion of the ring portion (1) is provided with an internal fixing portion (3); the internal fixing portion (3) includes a reinforcement strip (301); the reinforcement strip (301) is inserted into the ring plate (101) bent into a non-bending full cylindrical structure; the inner portion of the ring portion (1) is provided with a partition (4); the partition (4) includes a partition support plate (401); the partition support plate (401) is inserted into the ring plate bent into a non-bending full cylindrical structure. (101); a water leakage groove (402) is circumferentially provided on the partition support plate (401); a connecting groove (403) is circumferentially provided on the partition support plate (401); an external suspension rod (405) is inserted into the interior of the connecting groove (403); an internal support portion (5) is provided below the partition portion (4); the internal support portion (5) includes an internal connection block (501); four groups of circumferentially distributed side connection screws (503) are fixedly connected to the outer wall of the internal connection block (501); the outside of the four groups of side connection screws (503) are respectively provided with internal support rods (504); the end positions of the four groups of internal support rods (504) are respectively fixedly connected with external leakage plug-in blocks (506).

2. The root self-repair protection structure for green belts in construction according to claim 1 is characterized by: The enclosure plate (101) needs to be bent into an incomplete cylindrical structure when in use; external resistance blocks (102) distributed in an array are fixedly connected to the outer wall of the enclosure plate (101); the external resistance blocks (102) are arranged in a truncated cone-shaped structure.

3. The root self-repair protection structure for green belts in construction according to claim 2 is characterized by: The internal resistance groove (103) is arranged inside the external resistance block (102), and the internal resistance groove (103) is connected with a through hole; the encircling plate (101) is provided with docking jacks (104) distributed in an array; two groups of splicing grooves (105) are provided at the edge of the encircling plate (101); and the splicing grooves (105) are connected with locking grooves (106).

4. The root self-repair protection structure for a green belt under construction according to claim 3 is characterized by: An auxiliary portion (2) is provided inside the encircling portion (1); the auxiliary portion (2) includes a docking bar (201); the docking bar (201) is configured as a cross-shaped structure; the docking bar (201) is inserted inside two sets of splicing grooves (105).

5. The root self-repair protection structure for green belts in construction according to claim 4 is characterized by: The docking strip (201) is provided with matching pin holes (202) at equal intervals; the matching pin holes (202) are aligned with the locking groove (106); an internal resistance plug (203) is inserted into the internal resistance groove (103); the internal resistance plug (203) is configured as a truncated cone structure, and the inner side of the internal resistance plug (203) is configured as an arc-shaped groove; a guide groove (204) is provided in the arc-shaped groove of the internal resistance plug (203).

6. The root self-repair protection structure for green belts in construction according to claim 3 is characterized by: The reinforcing strip (301) is configured as a long strip structure, and a long strip protrusion is fixedly connected to the inner side of the reinforcing strip (301); auxiliary adjustment grooves (302) are equidistantly provided on the long strip protrusion of the reinforcing strip (301); an external fixing block (303) is fixedly connected to the outer wall of the reinforcing strip (301); the external fixing block (303) is configured as a cylindrical structure, and a truncated cone-shaped protrusion is provided at the end position of the external fixing block (303), and a cross-shaped groove is provided on the external fixing block (303), and the external fixing block (303) is inserted into the interior of the docking socket (104).

7. The root self-repair protection structure for green belts in construction according to claim 1 is characterized by: The partition support plate (401) is configured as a disc-shaped structure, and a cylindrical protrusion is fixedly connected to the bottom of the partition support plate (401); the cross-section of the water leakage groove (402) is a Y-shaped structure; the connecting groove (403) is configured as a circular through hole; a docking slot (404) is provided at the bottom of the partition support plate (401); the docking slot (404) is configured as a hexagonal prism-shaped groove; the outer suspension rod (405) is configured as a cylindrical rod-shaped structure, a stopper is fixedly connected to the bottom of the outer suspension rod (405), and a lifting ring is provided at the top of the outer suspension rod (405).

8. The root self-repair protection structure for green belts in construction according to claim 7 is characterized by: The internal connection block (501) is arranged below the partition support plate (401); the internal connection block (501) is arranged as a cylindrical structure, the top of the internal connection block (501) is fixedly connected with a hexagonal prism-shaped protrusion, and the hexagonal prism-shaped protrusion on the top of the internal connection block (501) is inserted into the docking slot (404); the bottom of the internal connection block (501) is fixedly connected with a fixed plug rod (502); the fixed plug rod (502) is arranged as a cylindrical structure, and the fixed plug rod (502) is provided with a conical protrusion; the four groups of side screw rods (503) are arranged as threaded rod structures.

9. The root self-repair protection structure for green belts in construction according to claim 3 is characterized by: The four groups of inner support rods (504) are configured as cylindrical structures, and a torsion cylinder is fixedly connected to the outer wall of the four groups of inner support rods (504); the interiors of the four groups of inner support rods (504) are respectively provided with matching screw grooves (505); the four groups of matching screw grooves (505) are configured as threaded grooves, and the four groups of inner support rods (504) are respectively threadedly connected to the corresponding side screw rods (503) through the matching screw grooves (505); the interiors of the four groups of external leakage plug-in blocks (506) are hollow structures, and the four groups of external leakage plug-in blocks (506) are respectively inserted into the corresponding internal resistance grooves (103).

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