Geocell device based on skeleton line body, forming device and method

Abstract

An earthwork standard room device based on skeleton line bodies, a forming device and a method, the earthwork standard room device comprises strips (90) with line parts I (902) and buckles (80) used for mutually connecting the connecting parts of the adjacent strips (90), through the strips (90) and the buckles (80), an earthwork standard room is formed, the skeleton line bodies which are distributed coherently are placed in an assembly of the earthwork standard room, and the skeleton line bodies are arranged in the assembly of the earthwork standard room. The technical problem that polyethylene or polypropylene and other auxiliaries are used as raw materials to extrude strips is solved, and therefore the using effect of the geocell device is improved.

Description

Technical Field

[0001] The invention relates to a geocell device, a forming device and a method, in particular to a geocell device, a forming device and a method based on a skeleton line body. Background Art

[0002] Geocells play a big role in road paving. Many road paving projects require the use of geocells. Geocells can strengthen the roadbed and prevent the roadbed from sinking during paving. They can also be laid on slopes to form slope protection structures. They can also be used to build retaining structures, etc. Therefore, geocell devices are an important geotechnical product. In existing geocell devices, strips are extruded from polyethylene or polypropylene and other additives as raw materials. Due to long-term exposure to light, oxygen and external forces, the sheet material is greatly deformed and the tensile strength is reduced, resulting in reduced protection and retaining capacity, thereby affecting the use effect of the geocell device. The present invention uses the technical feature of placing a continuously distributed skeleton line in the components of the geocell to effectively explore and study the technical problem of using polyethylene or polypropylene and other additives as raw materials to extrude strips at the technical level. The statements here only provide background technology related to the present invention and do not necessarily constitute prior art. The technical solution of the present invention is made based on the technical briefing document provided by the applicant on November 8, 2024, which solves actual technical problems in the work process, and the existing technical problems, technical features and technical effects in the similar patent literature and background technology obtained through retrieval. Summary of the invention

[0003] The object of the present invention is a geocell device based on a skeleton line body. The object of the present invention is a geocell forming device based on a skeleton line body. The object of the present invention is a geocell forming method based on a skeleton line body.

[0004] In order to overcome the above technical shortcomings, the purpose of the present invention is to provide a geocell device, a forming device and a method based on a skeleton line body, thereby improving the use effect of the geocell device.

[0005] In order to achieve the above-mentioned purpose, the technical solution adopted by the present invention is: a geocell device based on a skeleton line body, comprising a strip having a line portion I and a buckle for interconnecting the connecting parts of adjacent strips.

[0006] Due to the design of strips and buckles, the geocell is formed by the strips and buckles, and a continuously distributed skeleton line is placed in the components of the geocell, which solves the technical problem of using polyethylene or polypropylene and other additives as raw materials to extrude strips, thereby improving the use effect of the geocell device.

[0007] The present invention is designed to connect the strips and buckles to each other in a manner that a continuously distributed skeleton line is placed in the components of the geocell.

[0008] The technical effect of the above technical solution is to achieve firm support for the strips with built-in skeleton lines.

[0009] The present invention is designed to provide buckles at the connection parts of adjacent strips, and the buckles are arranged to be connected with the corners of the rhombus-shaped hole bodies formed by the adjacent strips.

[0010] The technical effect of the above technical solution is that the strips and buckles constitute the basic technical solution of the present invention and solve the technical problem of the present invention.

[0011] The present invention designs that the strip is configured to include a belt portion and a line portion I, and the belt portion is configured to be accommodatingly connected to the line portion I, and one section of the belt portion is configured to be connected to a buckle.

[0012] The present invention is designed that the belt portion is set as a polyethylene or polypropylene strip and the line portion I is set as a yarn rope-like body, the yarn rope-like body of the line portion I is set as a twisted body of glass fiber yarn, polyester fiber yarn, basalt fiber yarn, carbon fiber yarn or aramid fiber yarn, and the line portion I is set to be distributed in a divergent state in the belt portion.

[0013] The technical effect of the above two technical solutions is that the yarn rope body is placed in the strip.

[0014] The present invention is designed that the buckle is arranged to include a strip portion I, a strip portion II, a hook portion, a sheet portion I and a sheet portion II, and the front and rear side surfaces of the strip portion I are arranged to be connected to one end of the inner side surface of the sheet portion II, the end of the strip portion II is arranged to be connected to the straight end of the hook portion and the inner end surface of the strip portion II is arranged to be connected to the inner end surface of the sheet portion I, the hook body end of the hook portion is arranged to be connected to the end of the strip portion I, and the sheet portion I and the sheet portion II are respectively arranged to be connected to the strip.

[0015] The present invention designs that the strip part I and the strip part II are respectively configured as hard plastic straight strip bodies and the hook part is configured as a hard plastic L-shaped strip body, and the sheet part I and the sheet part II are respectively configured as hot-melt plastic plate bodies.

[0016] The technical effect of the above two technical solutions is that hot-melt connection between the sheet and the strip is achieved.

[0017] The present invention is designed that the strips and buckles are arranged to be connected to each other in the middle, the buckles are arranged to be arranged at intervals along the strips, and the sheet part I and the sheet part II are respectively arranged to be connected to the belt part.

[0018] The present invention provides that a receiving groove body I is arranged on the edge surface of the belt portion and the receiving groove body I is arranged to be connected with the buckle.

[0019] The present invention designs that the accommodating groove body I is arranged as a C-shaped opening body and the accommodating groove body I is arranged to be spaced and distributed along the transverse center line of the belt portion.

[0020] The technical effect of the above two technical solutions is that the connection of the external opening body is achieved.

[0021] The present invention is designed that the buckle is arranged to include a strip portion I, a strip portion II, a rod portion, a platform portion I, a platform portion II and a wire portion II, and one of the end surfaces of the rod portion is arranged to be connected to the upper part of the inner end surface of the strip portion I, another end surface of the rod portion is arranged to be connected to the upper part of the inner end surface of the strip portion II and the lower part of the inner end surface of the strip portion I is arranged to be connected to the inner end surface of the platform portion I, the lower part of the inner end surface of the strip portion II is arranged to be connected to the inner end surface of the platform portion II and the middle of the inner end surface of the strip portion I and the middle of the inner end surface of the strip portion II are respectively arranged to be connected to the inner end surface of the wire portion II, the outer end surface of the platform portion I is arranged to be connected to the outer end surface of the platform portion II and the rod portion, platform portion I, platform portion II and wire portion II are respectively arranged to be connected to the strip.

[0022] The present invention designs that the rod portion, the platform portion I and the platform portion II are respectively configured as hot-melt plastic rod-shaped bodies, and the line portion II is configured as a hot-melt plastic rope-shaped body.

[0023] The technical effect of the above two technical solutions is that hot-melt composite connection of the rod body, the wire body and the strip is achieved.

[0024] The present invention designs that the rod portion, the platform portion I and the platform portion II are respectively arranged to be connected to the accommodating groove body I, and the line portion II is arranged to be connected to the belt portion.

[0025] A geocell forming device based on a skeleton line body comprises a strip butt joint template used as a geocell template and a support seat arranged on the strip butt joint template.

[0026] Due to the design of the strip butt joint template and the support seat, the end face support of the strip butt joint template is realized through the support seat, and the strip butt joint distribution of the strips in a firm state according to the constituent grid holes is realized through the strip butt joint template, which solves the technical problem of using polyethylene or polypropylene and other additives as raw materials through extrusion of strips, thereby improving the use effect of the geocell device.

[0027] The present invention is designed to connect the strip butt joint template and the support seat to each other in a manner that the strips in a firm state are butt jointed and distributed according to the grid holes.

[0028] The technical effect of the above two technical solutions is that: the strips are connected to the template body to obtain a grid.

[0029] The present invention is designed to also include a first accessory device, and the first accessory device is arranged to be distributed corresponding to the strip docking template. The first accessory device is arranged to include a first rail, a walkway, a second rail, a moving vehicle, a reel, a fixed-length conveyor roller assembly, a steering conveyor roller assembly and a cutting assembly.

[0030] The technical effect of the above technical solution is: to realize the integrated installation of other components, and to expand the technical effect of the present invention.

[0031] The present invention is designed to provide a strip docking template in a support seat, the first rail and the second rail are respectively arranged to be distributed corresponding to the strip docking template, and a moving vehicle is provided on the first rail and the second rail, a fixed-length conveying roller assembly and a cutting assembly are respectively provided on the moving vehicle, and a steering conveying roller assembly is provided between the fixed-length conveying roller assembly and the cutting assembly and the moving vehicle, and the walkway is provided on the first rail.

[0032] The technical effect of the above technical scheme is that the basic technical scheme of the present invention is formed by the strip docking template, the support seat, the first rail, the walkway, the second rail, the moving vehicle, the unwinding shaft, the fixed-length conveyor roller assembly, the steering conveyor roller assembly and the cutting assembly, which solves the technical problem of the present invention.

[0033] The present invention is designed that the strip docking template is arranged to include a frame part, a beam part I, a leg part, an end fork seat part, a middle fork seat part, a plate part I, a guide rod part and a telescopic cylinder part I, and a receiving groove body II is arranged on the outer sides of the left and right frames of the frame part, the end heads of the beam part I are respectively arranged to be connected to the inner end faces of the left and right frames of the frame part, and the lower parts of the outer end faces of the left and right frames of the frame part are arranged to be connected to the transverse end heads of the leg part, the upper and lower parts of the outer end faces of the left and right frames of the frame part are respectively arranged to be connected to the outer shell of the telescopic cylinder part I, and the longitudinal end heads of the guide rod part are arranged to be connected to the receiving groove body II A sunken connection, the vertical end of the guide rod part and the telescopic end of the telescopic cylinder part I are respectively arranged to be connected to the end of the plate part I and the inner side surface of the end branch seat part is arranged to be connected to the outer side surfaces of the upper and lower frames of the frame part, the inner side surface of the middle branch seat part is arranged to be connected to the outer side surface of the beam part I and the middle branch seat part is arranged to be distributed with the end branch seat part in a manner of having an intermediate gap body, the vertical part of the plug-in leg part is arranged to be plug-in connected to the support seat and the end branch seat part located at the upper position is arranged to be distributed corresponding to the cutting assembly, and the frame part is respectively arranged to be distributed corresponding to the first rail and the second rail.

[0034] The present invention designs that the frame part is set as a rectangular side frame body, the beam part I is set as a strip body, the insertion leg part is set as an L-shaped rectangular strip body, the plate part I is set as a rectangular sheet body, the guide rod part is set as an L-shaped beam body with a dovetail longitudinal end, the telescopic cylinder part I is set as an electric push rod, the accommodating groove body II is set as a dovetail groove body, and the dovetail longitudinal end of the guide rod part is set to be connected with the accommodating groove body II. The beam part I is arranged at intervals along the vertical center line of the frame part, and the end bifurcation seat part and the middle bifurcation seat part are respectively arranged at intervals along the horizontal center line of the frame part.

[0035] The present invention designs that the end bifurcation seat part is set to include a plate groove part I, a plate part II, a plate groove part II, and a plate groove part III. The middle of the open bottom wall of the plate groove part I is set to be connected with the inner end face of the plate part II. One side of the inner port of the plate groove part I is set to be connected with the inner end port of the plate groove part II, and the other side of the inner port of the plate groove part I is set to be connected with the inner end port of the plate groove part III. The outer end face of the bottom wall of the plate groove part I is set to be connected with the frame part, and the open part of the groove part I is set to be connected with the plate part I. The outer end ports of the plate groove part II and the plate groove part III are respectively set to be connected with the middle bifurcation seat part in a body type with an intermediate gap.

[0036] The present invention designs that the plate groove part I, the plate groove part II, and the plate groove part III are respectively set as plate bodies with a C-shaped cross-section, and the plate groove part II and the plate groove part III are set to be distributed in a V-shaped pattern. The plate part II is set as a sheet body.

[0037] The present invention designs that the middle bifurcation seat part is set to include a plate part III, a plate groove part IV, and a plate groove part V. One side of the outer side face of the plate part III is set to be connected with the inner side face of the plate groove part IV, and the other side of the outer side face of the plate part III is set to be connected with the inner side face of the plate groove part V. The middle corner of the plate groove part IV is set to be connected with the middle corner of the plate groove part V. The outer end ports of the plate groove part IV and the plate groove part V located on the edge are respectively set to be connected with the end bifurcation seat part in a body type with an intermediate gap, and the outer end ports of the adjacent plate groove parts IV located in the middle are set to be connected with each other in a body type with an intermediate gap. The outer end ports of the adjacent plate groove parts V located in the middle are set to be connected with each other in a body type with an intermediate gap, and the inner side face of the plate part III is set to be connected with the beam part I.

[0038] The present invention designs that the plate part III is set as a sheet body, and the plate groove part IV and the plate groove part V are set as >-shaped plate bodies with a C-shaped cross-section.

[0039] The technical effects of the above six technical solutions are as follows: The installation position specification integration of the strip by the plate groove group is realized, and the forming accuracy of the geogrid is improved.

[0040] The present invention designs that an accommodating hole is arranged on the upper end face portion of the seat portion of the support seat and the accommodating hole is arranged to be connected to the strip docking template, and the lower end face portion of the seat portion is arranged to be connected to the foundation surface.

[0041] The present invention designs that the seat is configured as a block and the receiving holes are configured as rectangular holes, and the receiving holes are configured to be arranged and distributed at intervals along the transverse center line of the seat.

[0042] The technical effect of the above two technical solutions is that: dual-position fixed support of the strip docking template is achieved.

[0043] The present invention is designed that the first track is configured to include a beam portion II and a rail portion, and the upper end surface of the beam portion II is configured to be connected to the outer side of the lower end surface of the rail portion, the lower end head of the beam portion II is configured to be connected to the foundation surface, and the upper part of the outer side surface of the beam portion II is configured to be connected to the walkway, and the rail portion is configured to be contact-connected to the moving vehicle.

[0044] The present invention is designed that the beam part II is configured as a columnar body and the rail part is configured as an I-shaped strip body, and the side groove body located on the rail part is configured to be connected to the moving vehicle.

[0045] The present invention designs that the walkway is configured as an L-shaped sheet body and the transverse end surface of the walkway is configured to be connected to the first track.

[0046] The present invention designs that the second rail is configured as an I-shaped strip body and the upper end surface portion of the second rail is configured to be contact-connected with the moving vehicle, and the lower end surface portion of the second rail is configured to be connected with the foundation surface.

[0047] The present invention is designed that the mobile vehicle is configured to include a plate portion III, a beam portion III, a beam portion IV, a wheel portion I, a wheel portion II, a wheel portion III, a wheel portion IV and a handle portion, and the upper portion of the inner end surface of the plate portion III is configured to be connected to the inner end surface of the beam portion III, the middle portion of the upper end surface of the plate portion III is configured to be connected to the middle portion of the horizontal portion of the beam portion IV, and the lower edge of the end surface of the plate portion III is configured to be connected to the wheel portion I and the wheel portion II through a pin shaft, the outer side of the lower end surface of the beam portion III is configured to be connected to the wheel portion III and the wheel portion IV through a pin shaft, and the front edge of the beam portion III The rear side surface is arranged to be connected to the longitudinal end surface of the handle portion, the upper portion of the plate portion III and the vertical portion of the beam portion IV are respectively arranged to be connected to the fixed-length conveying roller assembly and the inner side of the transverse portion of the beam portion IV and the inner side of the beam portion III are respectively arranged to be connected to the steering conveying roller assembly, the outer side of the transverse portion of the beam portion IV and the outer side of the beam portion III are arranged to be connected to the cutting assembly and the middle of the plate portion III is arranged to be connected to the unwinding shaft, the wheel portion I and the wheel portion II are respectively arranged to be contact-connected to the second rail and the wheel portion III and the wheel portion IV are respectively arranged to be contact-connected to the first rail.

[0048] In the design of the present invention, the plate part III is set as a rectangular block, and the beam part III is set as a straight rectangular rod. The beam part IV is set as an L-shaped rectangular rod, and the wheel parts I and II are respectively set as circular discs with annular groove bodies on their peripheral side surfaces. The annular groove bodies of the wheel part I and the wheel part II are respectively set to be connected to the second track, and the wheel parts III and IV are respectively set as circular discs. The wheel parts III and IV are set to be clamped and connected to the first track, and the handle part is set as a U-shaped rod.

[0049] In the design of the present invention, the pay-off reel is set as a rod, and the inner end face of the pay-off reel is set to be connected to the mobile vehicle.

[0050] In the design of the present invention, the fixed-length conveying roller assembly is set to include a roller part I, a roller part II, and a motor part. The end shaft of the motor part is set to be connected to one of the end shafts of the roller part I. The roller part II is set to be distributed corresponding to the roller part I, and the ends of the roller part I and the roller part II are respectively set to be rotatably connected to the mobile vehicle. The housing of the motor part is set to be connected to the mobile vehicle through an intermediate connecting rod, and the roller part I and the roller part II are respectively set to be distributed corresponding to the pay-off reel and the steering conveying roller assembly.

[0051] In the design of the present invention, the roller part I and the roller part II are respectively set as middle-shaped shaft bodies, and the motor part is set as a control motor.

[0052] In the design of the present invention, the steering conveying roller assembly is set to include a roller part III and a roller part IV. The roller part III is set to be distributed corresponding to the roller part IV. The ends of the roller part III and the roller part IV are respectively set to be rotatably connected to the mobile vehicle. The roller part III and the roller part IV are respectively set to be distributed corresponding to the fixed-length conveying roller assembly and the cutting assembly.

[0053] In the design of the present invention, the roller part III and the roller part IV are respectively set as middle-shaped shaft bodies.

[0054] In the design of the present invention, the cutting assembly is set to include a plate part IV, a cutting blade part, a frame part, and a telescopic cylinder part II. The outer end of the cutting blade part is set to be distributed corresponding to the plate part IV. The inner end face of the cutting blade part is set to be connected to the upper side of the inner end of the vertical part of the frame part, and the lower end of the vertical part of the frame part is set to be connected to the telescopic end of the telescopic cylinder part II. The outer shell of the telescopic cylinder part II and the upper and lower end faces of the plate part IV are respectively set to be connected to the mobile vehicle, and the horizontal part of the frame part is set to be connected to the mobile vehicle in a penetrating manner. The plate part IV and the cutting blade part are set to be distributed corresponding to the steering conveying roller assembly.

[0055] In the design of the present invention, the plate part IV is set as a rectangular sheet, and the cutting blade part is set as a rectangular sheet in a heated state with a cutting edge on the outer end. The frame part is set as an F-shaped frame, and the telescopic cylinder part II is set as an electric push rod.

[0056] The technical effect of the above thirteen technical solutions is: to realize the fixed-length conveying of the strips to the strip docking template, thereby improving the conveying efficiency of the strips.

[0057] The present invention is designed that the strip docking template and the support seat are arranged to be distributed in a vertical installation manner, and the strip docking template and the support seat and the first rail, the walkway, the second rail, the moving vehicle, the unwinding shaft, the fixed-length conveying roller assembly, the steering conveying roller assembly and the cutting assembly are arranged to be distributed in a strip conveying manner.

[0058] The present invention is designed that two support seats are arranged on the strip docking template, two second rails are arranged on the moving vehicle, the plate portion IV, the frame portion, the roller portion III and the roller portion IV are respectively arranged to be connected to the beam portion III and the beam portion IV, the telescopic cylinder portion II is arranged to be connected to the beam portion III, the roller portion I and the roller portion II are respectively arranged to be connected to the plate portion III and the beam portion IV, the motor portion is arranged to be connected to the beam portion IV, the wheel portion III and the wheel portion IV are respectively arranged to be connected to the rail portion, the accommodating hole body is arranged to be connected to the leg insertion portion, the plate groove portion IV is arranged to be distributed corresponding to the plate groove portion II, and the plate groove portion V is arranged to be distributed corresponding to the plate groove portion III.

[0059] The present invention designs a geocell forming method based on a skeleton line body, and the steps are: the support seat realizes the end face support of the strip docking template, and the strip docking template realizes the docking distribution of the strips in a firm state according to the grid holes.

[0060] The technical effect of the above technical solution is: highlighting the technical feature of connecting and distributing the strips in a firm state according to the grid holes, and introducing the application of the technical effect of the geocell forming method based on the skeleton line body.

[0061] The present invention is designed, and its steps are: when it is necessary to form the geocell, the raw material with the belt part and the wire part I are mixed, and a strip is obtained by extrusion treatment, and the vertical part of the leg part of the strip docking template corresponding to the geocell is inserted into the accommodating hole body, so that the strip docking template is installed on the outside of the beam part II, and the strip roll is installed on the unwinding shaft. The operator is located on the walkway, and the strip is placed between the roller part I and the roller part II, and the moving strip is placed between the roller part III and the roller part IV, and the moving strip is placed between the plate part IV and the cut-off piece part, so that the telescopic cylinder part II is in an extended state, the telescopic cylinder part I is in a contracted state, the guide rod part is moved inward in the accommodating groove body II, and the plate part I is placed in the groove part Ⅰ, put the end of the strip between plate groove part Ⅰ and plate part Ⅱ, put the motor part in working state, make roller part Ⅰ rotate on plate part Ⅲ and beam part Ⅳ, roll the strip on the unwinding shaft to release it at a fixed length, move between roller part Ⅰ and roller part Ⅱ, between roller part Ⅲ and roller part Ⅳ, between plate part Ⅳ and cutting piece part, put the strip into plate groove part Ⅱ and plate groove part Ⅳ or put the strip into plate groove part Ⅲ and plate groove part Ⅴ, after putting it into plate groove part Ⅱ and plate groove part Ⅳ or putting it into plate groove part Ⅲ and plate groove part Ⅴ, put telescopic cylinder part Ⅱ in contracted state, close the cutting piece part and plate part Ⅳ, cut the strip, and the operator holds the handle part and applies a pushing force to beam part Ⅲ , make wheel part I and wheel part II move on the second track, make wheel part III and wheel part IV move in beam part II, move the strip to the next installation station in the strip docking template, so as to realize the installation of the strip in the strip docking template, put the buckle into the middle gap body between the end branch seat part and the middle branch seat part, and the middle gap body between the adjacent middle branch seat parts, make the sheet part I and sheet part II contact with the strip respectively, connect the hook body end of the hook part with the end of the strip part I, heat the sheet part I and sheet part II, connect the sheet part I and sheet part II with the strip respectively, or, punch the edge surface of the strip part to obtain the receiving groove body I, put the rod part into the receiving groove body located on one of the edge surfaces of the strip part In the trough body I, the platform part I and the platform part II are placed in the accommodating trough body I located on the other edge surface of the belt part, so that the line part II contacts the strip, and the rod part, platform part I, platform part II and line part II are heated, so that the rod part, platform part I, platform part II and line part II are connected to the strip respectively, and the platform part I and platform part II are connected together, so as to realize the connection of the connecting parts of adjacent strips by the buckle, and the geocell is made on the strip docking template, and the telescopic cylinder part I is in an extended state, and the guide rod part moves outward in the accommodating trough body II, so that the plate part I is separated from the opening of the trough part I, and the geocell is taken out from the plate trough part I, the plate part II, the plate trough part II, the plate trough part III, the plate trough part IV and the plate trough part V.

[0062] The technical effect of the above technical solution is that: the connection operation of the connecting parts of adjacent strips by buckles is realized on the strip docking template.

[0063] In the technical solution, the skeleton line body which is placed in a coherent distribution in the components of the geocell is realized by strips.

[0064] In the present technical solution, the strips and buckles of the skeleton body placed in a continuously distributed manner in the components of the geocell are important technical features. In the technical field of geocell devices, forming devices and methods based on skeleton bodies, the present technical solution has novelty, creativity and practicality. The terms in the present technical solution can be explained and understood using the patent literature in this technical field. BRIEF DESCRIPTION OF THE DRAWINGS

[0065] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0066] Figure 1 It is a schematic diagram of one of the first embodiments of a geocell device based on a skeleton line body of the present invention, Figure 2 This is a schematic diagram of the connection relationship between the strip 90 and the buckle 80 of one of the first embodiments of the geocell device based on the skeleton line body of the present invention. Figure 3 Schematic diagram of the structure of a buckle 80 of a first embodiment of a geocell device based on a skeleton line body of the present invention. Figure 4 FIG. 1 is a schematic structural diagram of a strip 90 of a second embodiment of a geocell device based on a skeleton line body according to the present invention. Figure 5 Schematic diagram of the structure of the buckle 80 of the first embodiment 2 of the geocell device based on the skeleton line body of the present invention. Figure 6 It is a schematic diagram of one of the first embodiments of a geocell forming device based on a skeleton line body of the present invention, Figure 7 It is a structural schematic diagram of the strip docking template 1 of the present invention, Figure 8 Schematic diagram of the connection relationship between the mobile vehicle 6 and the cutting component 91 of the present invention, Strip-90, buckle-80, belt part-901, line part I-902, accommodating groove body I-903, strip part I-801, strip part II-802, hook part-803, sheet part I-804, sheet part II-805, rod part-24, table part I-25, table part II-26, line part II-27, strip docking template-1, support seat-2, first track-3, walkway plate-4, second track-5, mobile car-6, unwinding shaft-7, fixed length conveying roller assembly-8, steering conveying roller assembly-9, cutting assembly-91, frame part-10, beam part I-11, leg insertion part-12, end branch seat part-13, middle branch seat part-14, plate part I-15, guide rod part-16 , telescopic cylinder part I-17, accommodating trough body II-18, plate trough part I-131, plate part II-132, plate trough part II-133, plate trough part III-134, plate part III-141, plate trough part IV-142, plate trough part V-143, seat part-28, accommodating hole body-29, beam part II-31, rail part-32, plate part III-61, beam part III-62, beam part IV-63, wheel part I-64, wheel part II-65, wheel part III-66, wheel part IV-67, handle part-68, roller part I-81, roller part II-82, motor part-83, roller part III-99, roller part IV-98, plate part IV-911, cutting piece part-912, frame part-913, telescopic cylinder part II-914. DETAILED DESCRIPTION

[0067] According to the Examination Guidelines, terms such as “having”, “including” and “comprising” used in the present invention should be understood as not dispensing with the existence or addition of one or more other elements or combinations thereof.

[0068] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0069] In the description of the present invention, it should be noted that the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", etc., indicating the orientation or positional relationship, are based on the orientation or positional relationship shown in the drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as limiting the present invention. In addition, the terms "first", "second", and "third" are used for descriptive purposes only, and cannot be understood as indicating or implying relative importance.

[0070] In the description of the present invention, it should be noted that, unless otherwise clearly specified and limited, the terms "installed", "connected", and "connected" should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection, or it can be indirectly connected through an intermediate medium, or it can be the internal communication of two components. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0071] In addition, the technical features involved in the different embodiments of the present invention described below can be combined with each other as long as they do not conflict with each other. In addition, unless otherwise specified, the equipment and materials used in the following examples are commercially available. If the processing conditions are not clearly stated, please refer to the purchased product manual or proceed according to conventional methods in the art.

[0072] A geocell device based on a skeleton line. Figure 1 This is one of the first embodiments of the present invention, which is specifically described in conjunction with the accompanying drawings. It includes strips 90 and buckles 80, and buckles 80 are provided at the connecting parts of adjacent strips 90. The buckles 80 are configured to connect with the corners of the diamond-shaped hole body formed by adjacent strips 90.

[0073] The second embodiment of the present invention is described in detail with reference to the accompanying drawings. In this embodiment, the strip 90 is configured to include a belt portion 901 and a line portion I 902 , and the belt portion 901 is configured to be accommodatingly connected to the line portion I 902 , and one section of the belt portion 901 is configured to be connected to the buckle 80 .

[0074] The strip 90 forms a support connection point for the buckle 80, the belt portion 901 realizes connection with the buckle 80, and the line portion I 902 realizes internal support of the strip 90, and its technical purpose is to be used as a supporting component of the geocell.

[0075] In this embodiment, the belt portion 901 is set as a polyethylene or polypropylene strip and the line portion I902 is set as a yarn rope-like body, the yarn rope-like body of the line portion I902 is set as a twisted body of glass fiber yarns, polyester fiber yarns, basalt fiber yarns, carbon fiber yarns or aramid fiber yarns and the line portion I902 is set to be distributed in a divergent state in the belt portion 901.

[0076] The technical purpose is to achieve the purpose of increasing the strength of the strip 90 .

[0077] In this embodiment, the buckle 80 is configured to include a strip portion I 801, a strip portion II 802, a hook portion 803, a sheet portion I 804 and a sheet portion II 805, and the front and rear side surfaces of the strip portion I 801 are configured to be connected to one end of the inner side surface of the sheet portion II 805, the end of the strip portion II 802 is configured to be connected to the straight end of the hook portion 803 and the inner end surface of the strip portion II 802 is configured to be connected to the inner end surface of the sheet portion I 804, the hook body end of the hook portion 803 is configured to be connected to the end of the strip portion I 801 and the sheet portion I 804 and the sheet portion II 805 are respectively configured to be connected to the strip 90.

[0078] A support connection point for the strip 90 is formed by the buckle 80, and the connection with the strip 90 is realized by the sheet part I 804 and the sheet part II 805. The sheet part I 804 and the sheet part II 805 are supported by the strip part I 801 and the strip part II 802, and the connection between the strip part I 801 and the strip part II 802 is realized by the hook part 803. The technical purpose is to be used as an intermediate connecting component of the geocell.

[0079] In this embodiment, the strip portion I 801 and the strip portion II 802 are respectively configured as hard plastic straight strips and the hook portion 803 is configured as a hard plastic L-shaped strip, and the sheet portion I 804 and the sheet portion II 805 are respectively configured as hot-melt plastic plates.

[0080] The technical purpose is to achieve hot-melt connection between the strips 90 .

[0081] In this embodiment, the strip 90 and the buckle 80 are arranged to be connected to each other in the middle, the buckle 80 is arranged to be arranged at intervals along the strip 90, and the sheet part I 804 and the sheet part II 805 are respectively arranged to be connected to the belt part 901.

[0082] A geocell device based on a skeleton line. Figure 4 , 5 This is the third embodiment of the first embodiment of the present invention, and this embodiment is specifically described in conjunction with the drawings. A receiving groove body Ⅰ903 is provided on the edge surface of the belt portion 901 and the receiving groove body Ⅰ903 is configured to be connected to the buckle 80.

[0083] In this embodiment, the accommodating groove body Ⅰ903 is configured as a C-shaped opening body and the accommodating groove body Ⅰ903 is configured to be arranged and distributed at intervals along the transverse center line of the belt portion 901.

[0084] The technical purpose is to achieve the notch body connection of the buckle 80.

[0085] In this embodiment, the buckle 80 is configured to include a strip portion I801, a strip portion II802, a rod portion 24, a platform portion I25, a platform portion II26 and a line portion II27, and one of the end surfaces of the rod portion 24 is configured to be connected to the upper portion of the inner end surface of the strip portion I801, another end surface of the rod portion 24 is configured to be connected to the upper portion of the inner end surface of the strip portion II802, and the lower portion of the inner end surface of the strip portion I801 is configured to be connected to the inner end surface of the platform portion I25, the lower portion of the inner end surface of the strip portion II802 is configured to be connected to the inner end surface of the platform portion II26, and the middle of the inner end surface of the strip portion I801 and the middle of the inner end surface of the strip portion II802 are respectively configured to be connected to the inner end surface of the line portion II27, the outer end surface of the platform portion I25 is configured to be connected to the outer end surface of the platform portion II26, and the rod portion 24, the platform portion I25, the platform portion II26 and the line portion II27 are respectively configured to be connected to the strip 90.

[0086] In the present embodiment, the rod portion 24, the platform portion I 25 and the platform portion II 26 are respectively configured as hot-melt plastic rod-shaped bodies, and the line portion II 27 is configured as a hot-melt plastic rope-shaped body.

[0087] The technical purpose is to achieve embedded connection of the strip 90.

[0088] In this embodiment, the rod portion 24 , the platform portion I 25 and the platform portion II 26 are respectively configured to be connected to the receiving groove body I 903 and the line portion II 27 is configured to be connected to the belt portion 901 .

[0089] A geocell forming device based on skeleton line body, Figure 6 This is one of the first embodiments of the present invention. This embodiment is specifically described in conjunction with the accompanying drawings. It includes a strip docking template 1, a support seat 2, a first rail 3, a walkway 4, a second rail 5, a moving vehicle 6, a reel 7, a fixed-length conveying roller assembly 8, a steering conveying roller assembly 9 and a cutting assembly 91. The strip docking template 1 is arranged in the support seat 2, the first rail 3 and the second rail 5 are respectively arranged to be distributed corresponding to the strip docking template 1, and a moving vehicle 6 is arranged on the first rail 3 and the second rail 5, and a fixed-length conveying roller assembly 8 and a cutting assembly 91 are respectively arranged on the moving vehicle 6, and a steering conveying roller assembly 9 is arranged between the fixed-length conveying roller assembly 8 and the cutting assembly 91 and the moving vehicle 6, and the walkway 4 is arranged on the first rail 3.

[0090] The second embodiment of the present invention is described in detail with reference to the accompanying drawings. In the present embodiment, the strip docking template 1 is configured to include a frame portion 10, a beam portion Ⅰ11, a leg portion 12, an end branch seat portion 13, an intermediate branch seat portion 14, a plate portion Ⅰ15, a guide rod portion 16 and a telescopic cylinder portion Ⅰ17, and a receiving groove body Ⅱ18 is provided on the outer side surfaces of the left and right frames of the frame portion 10, the ends of the beam portion Ⅰ11 are respectively configured to be connected to the inner end surfaces of the left and right frames of the frame portion 10, and the lower parts of the outer end surfaces of the left and right frames of the frame portion 10 are configured to be connected to the transverse end heads of the leg portion 12, the upper and lower parts of the outer end surfaces of the left and right frames of the frame portion 10 are respectively configured to be connected to the outer shell of the telescopic cylinder portion Ⅰ17, and the longitudinal end heads of the guide rod portion 16 are configured to be connected to the receiving groove The body II 18 is sunk in connection, the vertical end of the guide rod portion 16 and the telescopic end of the telescopic cylinder portion I 17 are respectively arranged to be connected to the end of the plate portion I 15 and the inner side surface of the end branch seat portion 13 is arranged to be connected to the outer side surfaces of the upper and lower frames of the frame portion 10, the inner side surface of the middle branch seat portion 14 is arranged to be connected to the outer side surface of the beam portion I 11 and the middle branch seat portion 14 is arranged to be distributed with the end branch seat portion 13 in a manner of having an intermediate gap, the vertical portion of the plug-in leg portion 12 is arranged to be plug-in connected to the support seat 2 and the end branch seat portion 13 located in the upper position is arranged to be distributed corresponding to the cutting assembly 91, and the frame portion 10 is respectively arranged to be distributed corresponding to the first rail 3 and the second rail 5.

[0091] Through the strip docking template 1, support connection points for the support seat 2, the first rail 3, the second rail 5 and the cutting assembly 91 are formed, the leg portion 12 realizes the connection with the support seat 2, the frame portion 10 realizes the connection with the first rail 3, the connection with the second rail 5, the end branch seat portion 13 realizes the connection with the cutting assembly 91, the end branch seat portion 13 and the middle branch seat portion 14 realize the support and connection processing of the strip 90, the beam portion Ⅰ11 realizes the support and connection processing of the middle branch seat portion 14, and the plate portion Ⅰ15, the guide rod portion 16, the telescopic cylinder portion Ⅰ17 and the accommodating trough body Ⅱ18 realize the cover connection processing of the end branch seat portion 13. The technical purpose is to be used as a template component for mutually docking and distributing support of the strips 90 of the geocell.

[0092] In this embodiment, the frame portion 10 is configured as a rectangular edge frame-like body and the beam portion I11 is configured as a strip-like body, the leg portion 12 is configured as an L-shaped rectangular strip-like body and the plate portion I15 is configured as a rectangular sheet-like body, the guide rod portion 16 is configured as an L-shaped beam-like body with a dovetail longitudinal end portion and the telescopic cylinder portion I17 is configured as an electric push rod, the accommodating groove body II18 is configured as a dovetail groove body and the dovetail longitudinal end portion of the guide rod portion 16 is configured to be connected to the accommodating groove body II18, the beam portion I11 is configured to be arranged and distributed at intervals along the vertical center line of the frame portion 10 and the end branch seat portion 13 and the middle branch seat portion 14 are respectively configured to be arranged and distributed at intervals along the transverse center line of the frame portion 10.

[0093] In this embodiment, the end bifurcation seat portion 13 is arranged to include a plate groove portion I 131, a plate portion II 132, a plate groove portion II 133, and a plate groove portion III 134. The middle of the open bottom wall of the plate groove portion I 131 is arranged to be connected to the inner end face of the plate portion II 132. One side portion of the inner port of the plate groove portion I 131 is arranged to be connected to the inner end port of the plate groove portion II 133, and the other side portion of the inner port of the plate groove portion I 131 is arranged to be connected to the inner end port of the plate groove portion III 134. The outer end face of the bottom wall of the plate groove portion I 131 is arranged to be connected to the frame portion 10, and the open portion of the groove portion I 131 is arranged to be connected to the plate portion I 15. The outer end ports of the plate groove portion II 133 and the plate groove portion III 134 are respectively arranged to be connected to the middle bifurcation seat portion 14 in a form of connection with an intermediate gap.

[0094] In this embodiment, the plate groove portion I 131, the plate groove portion II 133, and the plate groove portion III 134 are respectively arranged as plate-shaped bodies with a U-shaped cross-section, and the plate groove portion II 133 and the plate groove portion III 134 are arranged in a spread-eagle shape, and the plate portion II 132 is arranged as a sheet-like body.

[0095] In this embodiment, the middle bifurcation seat portion 14 is arranged to include a plate portion III 141, a plate groove portion IV 142, and a plate groove portion V 143. One side of the outer side face of the plate portion III 141 is arranged to be connected to the inner side face of the plate groove portion IV 142, and the other side of the outer side face of the plate portion III 141 is arranged to be connected to the inner side face of the plate groove portion V 143. The middle corner of the plate groove portion IV 142 is arranged to be connected to the middle corner of the plate groove portion V 143. The outer end ports of the plate groove portion IV 142 and the plate groove portion V 143 located on the edge are respectively arranged to be connected to the end bifurcation seat portion 13 in a form of connection with an intermediate gap, and the outer end ports of the adjacent plate groove portions IV 142 located in the middle are arranged to be connected to each other in a form of connection with an intermediate gap. The outer end ports of the adjacent plate groove portions V 143 located in the middle are arranged to be connected to each other in a form of connection with an intermediate gap, and the inner side face of the plate portion III 141 is arranged to be connected to the beam portion I 11.

[0096] In this embodiment, the plate portion III 141 is arranged as a sheet-like body, and the plate groove portion IV 142 and the plate groove portion V 143 are arranged as >-shaped plate-shaped bodies with a U-shaped cross-section.

[0097] Its technical purpose is to: realize the support of the strip 90 of the geocell in accordance with the composition of the diamond-shaped pore body.

[0098] In this embodiment, a receiving hole body 29 is arranged on the upper end face portion of the seat portion 28 of the support seat 2, and the receiving hole body 29 is arranged to be connected to the strip docking template 1, and the lower end face portion of the seat portion 28 is arranged to be connected to the ground surface.

[0099] A supporting connection point for the strip docking template 1 is formed by the supporting seat 2, and the connection with the strip docking template 1 is realized by the accommodating hole body 29. The supporting connection processing of the accommodating hole body 29 is realized by the seat part 28. Its technical purpose is to be used as a supporting carrier for the strip docking template 1.

[0100] In this embodiment, the seat portion 28 is configured as a block-shaped body and the receiving holes 29 are configured as rectangular hole-shaped bodies, and the receiving holes 29 are configured to be arranged and distributed at intervals along the transverse center line of the seat portion 28 .

[0101] The technical purpose is to achieve plug-in support for the strip docking template 1.

[0102] In this embodiment, the first rail 3 is configured to include a beam portion Ⅱ31 and a rail portion 32, and the upper end surface of the beam portion Ⅱ31 is configured to be connected to the outer side of the lower end surface of the rail portion 32, the lower end head of the beam portion Ⅱ31 is configured to be connected to the foundation surface and the upper part of the outer surface of the beam portion Ⅱ31 is configured to be connected to the walkway 4, and the rail portion 32 is configured to be contact-connected to the moving vehicle 6.

[0103] A supporting connection point for the walkway 4 and the moving vehicle 6 is formed through the first rail 3, the connection with the walkway 4 is realized by the beam part II 31, and the connection with the moving vehicle 6 is realized by the rail part 32. Its technical purpose is to serve as a supporting carrier for the walkway 4 and the moving vehicle 6.

[0104] In this embodiment, the beam portion II 31 is configured as a columnar body and the rail portion 32 is configured as an I-shaped strip body, and the side groove body located on the rail portion 32 is configured to be connected to the moving vehicle 6.

[0105] The technical purpose is to realize overhead support of the walkway 4 and the moving vehicle 6.

[0106] In the present embodiment, the walkway 4 is configured as an L-shaped sheet and the transverse end surface of the walkway 4 is configured to be connected to the first rail 3 .

[0107] A supporting connection point for the first rail 3 is formed by the walkway 4, and the connection with the first rail 3 is achieved by the walkway 4. Its technical purpose is to be used as a component for supporting the operator while walking.

[0108] In this embodiment, the second rail 5 is configured as an I-shaped strip and the upper end surface portion of the second rail 5 is configured to be contact-connected with the moving vehicle 6 , and the lower end surface portion of the second rail 5 is configured to be connected with the foundation surface.

[0109] A supporting connection point for the mobile vehicle 6 is formed by the second rail 5 , and the connection with the mobile vehicle 6 is realized by the second rail 5 . The technical purpose of the second rail 5 is to serve as a supporting carrier for the mobile vehicle 6 .

[0110] In this embodiment, the mobile vehicle 6 is provided to include a plate portion III 61, a beam portion III 62, a beam portion IV 63, a wheel portion I 64, a wheel portion II 65, a wheel portion III 66, a wheel portion IV 67, and a handle portion 68. The upper part of the inner end face of the plate portion III 61 is provided to be connected to the inner end face of the beam portion III 62. The middle of the upper end face of the plate portion III 61 is provided to be connected to the middle of the transverse portion of the beam portion IV 63. The lower edge of the end face of the plate portion III 61 is respectively provided to be connected to the wheel portion I 64 and the wheel portion II 65 through a pin shaft. The outer sides of the lower end faces of the beam portion III 62 are respectively provided to be connected to the wheel portion III 66 and the wheel portion IV 67 through a pin shaft. The front and rear side faces of the beam portion III 62 are provided to be connected to the longitudinal end face of the handle portion 68. The upper part of the plate portion III 61 and the vertical portion of the beam portion IV 63 are respectively provided to be connected to the fixed-length conveying roller assembly 8. The inner side of the transverse portion of the beam portion IV 63 and the inner side of the beam portion III 62 are provided to be connected to the steering conveying roller assembly 9. The outer side of the transverse portion of the beam portion IV 63 and the outer side of the beam portion III 62 are provided to be connected to the cutting assembly 91. The middle of the plate portion III 61 is provided to be connected to the unwinding shaft 7. The wheel portion I 64 and the wheel portion II 65 are respectively provided to be in contact connection with the second track 5. The wheel portion III 66 and the wheel portion IV 67 are respectively provided to be in contact connection with the first track 3.

[0111] Through the mobile vehicle 6, support connection points for the first track 3, the second track 5, the unwinding shaft 7, the fixed-length conveying roller assembly 8, the steering conveying roller assembly 9, and the cutting assembly 91 are formed. Through the wheel portion III 66 and the wheel portion IV 67, the connection with the first track 3 is realized. Through the wheel portion I 64 and the wheel portion II 65, the connection with the second track 5 is realized. Through the plate portion III 61, the connection with the unwinding shaft 7 is realized. Through the plate portion III 61 and the beam portion IV 63, the connection with the fixed-length conveying roller assembly 8 is realized. Through the beam portion III 62 and the beam portion IV 63, the connection with the steering conveying roller assembly 9 is realized. The connection with the cutting assembly 91 is realized. Through the handle portion 68, the connection and handling of the operator's hand gripping are realized. Its technical purpose is to be used as a support carrier for the unwinding shaft 7, the fixed-length conveying roller assembly 8, the steering conveying roller assembly 9, and the cutting assembly 91.

[0112] In this embodiment, the plate portion III 61 is provided as a rectangular block, the beam portion III 62 is provided as a straight rectangular rod, the beam portion IV 63 is provided as an L-shaped rectangular rod, the wheel portion I 64 and the wheel portion II 65 are respectively provided as circular disc-shaped bodies with annular groove bodies on their peripheral side faces. The annular groove bodies of the wheel portion I 64 and the wheel portion II 65 are respectively provided to be connected to the second track 5. The wheel portion III 66 and the wheel portion IV 67 are respectively provided as circular disc-shaped bodies. The wheel portion III 66 and the wheel portion IV 67 are provided to be in a clamping connection with the first track 3, and the handle portion 68 is provided as a U-shaped rod.

[0113] The technical purpose is to realize the motion support of the unwinding shaft 7, the fixed-length conveying roller assembly 8, the steering conveying roller assembly 9 and the cutting assembly 91.

[0114] In the present embodiment, the unwinding shaft 7 is provided as a rod-shaped body and the inner end surface portion of the unwinding shaft 7 is provided to be coupled to the moving vehicle 6 .

[0115] A supporting connection point for the mobile vehicle 6 is formed by the unwinding shaft 7, and the connection with the mobile vehicle 6 is realized by the unwinding shaft 7. Its technical purpose is to be used as a component for supporting the strip 90 rolls.

[0116] In this embodiment, the fixed-length conveying roller assembly 8 is configured to include a roller portion I81, a roller portion II82 and a motor portion 83, and the end shaft of the motor portion 83 is configured to be connected to one of the end shafts of the roller portion I81, the roller portion II82 is configured to be distributed corresponding to the roller portion I81, and the end of the roller portion I81 and the end of the roller portion II82 are respectively configured to be rotatably connected to the moving vehicle 6, the shell of the motor portion 83 is configured to be connected to the moving vehicle 6 through an intermediate connecting rod, and the roller portion I81 and the roller portion II82 are respectively configured to be distributed corresponding to the unwinding shaft 7 and the steering conveying roller assembly 9.

[0117] Through the fixed-length conveying roller assembly 8, a supporting connection point for the moving vehicle 6, the unwinding shaft 7 and the steering conveying roller assembly 9 is formed. The roller part I 81, the roller part II 82 and the motor part 83 realize the connection with the moving vehicle 6. The roller part I 81 and the roller part II 82 realize the connection with the unwinding shaft 7 and the connection with the steering conveying roller assembly 9. Its technical purpose is to be used as a component for fixed-length release processing of the strip 90 rolls.

[0118] In the present embodiment, the roller portion I 81 and the roller portion II 82 are respectively provided as a square-shaped shaft-shaped body and the motor portion 83 is provided as a control motor.

[0119] The technical purpose is to achieve the lateral clamping and conveying processing of the strip 90.

[0120] In this embodiment, the steering conveying roller assembly 9 is configured to include a roller portion III99 and a roller portion IV98, and the roller portion III99 is configured to be distributed corresponding to the roller portion IV98, the end of the roller portion III99 and the end of the roller portion IV98 are respectively configured to be rotatably connected to the moving vehicle 6, and the roller portion III99 and the roller portion IV98 are respectively configured to be distributed corresponding to the fixed-length conveying roller assembly 8 and the cutting assembly 91.

[0121] Through the fixed-length conveying roller assembly 8, a supporting connection point for the moving vehicle 6, the fixed-length conveying roller assembly 8 and the steering conveying roller assembly 9 is formed. The roller part III 99 and the roller part IV 98 realize the connection with the moving vehicle 6, the connection with the fixed-length conveying roller assembly 8, and the connection with the steering conveying roller assembly 9. The technical purpose is to be used as a component for steering and conveying the strip 90.

[0122] In this embodiment, the roller portion III 99 and the roller portion IV 98 are respectively configured as a center-shaped shaft-like body.

[0123] The technical purpose is to achieve vertical clamping and conveying of the strip 90.

[0124] In this embodiment, the cutting assembly 91 is configured to include a plate portion IV911, a cutting piece portion 912, a frame portion 913 and a telescopic cylinder portion II914, and the outer end of the cutting piece portion 912 is configured to be distributed correspondingly to the plate portion IV911, the inner end surface of the cutting piece portion 912 is configured to be connected to the upper side of the inner end surface of the vertical portion of the frame portion 913, and the lower end head of the vertical portion of the frame portion 913 is configured to be connected to the telescopic end of the telescopic cylinder portion II914, the outer shell of the telescopic cylinder portion II914 and the upper and lower end surfaces of the plate portion IV911 are respectively configured to be connected to the moving vehicle 6, and the transverse portion of the frame portion 913 is configured to be through-connected to the moving vehicle 6, and the plate portion IV911 and the cutting piece portion 912 are configured to be distributed correspondingly to the steering conveying roller assembly 9.

[0125] Through the cutting component 91, a supporting connection point for the moving vehicle 6 and the steering conveying roller assembly 9 is formed. The connection with the moving vehicle 6 is realized by the plate part IV 911, the frame part 913 and the telescopic cylinder part II 914. The connection with the steering conveying roller assembly 9 is realized by the plate part IV 911 and the cutting piece part 912. The technical purpose is to be used as a component for cutting the strip 90.

[0126] In this embodiment, the plate portion IV 911 is set as a rectangular sheet and the cut-off piece portion 912 is set as a rectangular sheet in a heated state with a cutting edge at the outer end, the frame portion 913 is set as an F-shaped frame and the telescopic cylinder portion II 914 is set as an electric push rod.

[0127] The technical purpose is to achieve hot melting and edge cutting of the strip 90.

[0128] In this embodiment, the strip docking template 1 and the support seat 2 are arranged to be distributed in a vertical installation manner, and the strip docking template 1 and the support seat 2 and the first rail 3, the walkway 4, the second rail 5, the mobile vehicle 6, the unwinding shaft 7, the fixed-length conveying roller assembly 8, the steering conveying roller assembly 9 and the cutting assembly 91 are arranged to be distributed in a strip conveying manner. Two support seats 2 are arranged on the strip docking template 1, two second rails 5 are arranged on the mobile vehicle 6, and the plate portion IV 911, the frame portion 913, the roller portion III 99 and the roller portion IV 98 are respectively arranged It is arranged to be connected with beam portion III62 and beam portion IV63, telescopic cylinder portion II914 is arranged to be connected with beam portion III62, roller portion I81 and roller portion II82 are arranged to be connected with plate portion III61 and beam portion IV63 respectively, motor portion 83 is arranged to be connected with beam portion IV63, wheel portion III66 and wheel portion IV67 are arranged to be connected with rail portion 32 respectively, accommodating hole body 29 is arranged to be connected with leg insertion portion 12, plate groove portion IV142 is arranged to be distributed corresponding to plate groove portion II133, and plate groove portion V143 is arranged to be distributed corresponding to plate groove portion III134.

[0129] The present invention is further described below in conjunction with examples. The following examples are intended to illustrate the present invention rather than to further limit the present invention.

[0130] A method for forming a geocell based on a skeleton line body, the steps are: when the geocell needs to be formed, a raw material having a strip portion 901 and a line portion I 902 are mixed, and a strip 90 is obtained by extrusion. Insert the vertical part of the leg part 12 of the strip docking template 1 corresponding to the geocell into the receiving hole 29, so that the strip docking template 1 is installed on the outside of the beam part II 31, and the strip 90 is rolled and installed on the unwinding shaft 7. The operator is located on the walkway 4, and the strip 90 is placed between the roller part I 81 and the roller part II 82, and the moving strip 90 is placed between the roller part III 99 and the roller part IV 98, and the moving strip 90 is placed between the plate part IV 911 and the cut piece part 912 , so that the telescopic cylinder part II 914 is in an extended state, the telescopic cylinder part I 17 is in a contracted state, the guide rod part 16 moves inward in the accommodating groove body II 18, the plate part I 15 is placed on the open mouth of the groove part I 131, and the end of the strip 90 is placed between the plate groove part I 131 and the plate part II 132, so that the motor part 83 is in a working state, and the roller part I 81 rotates on the plate part III 61 and the beam part IV 63, and the strip 90 is rolled on the unwinding shaft 7 for a fixed length release, and the strip The strip 90 moves between the roller part I81 and the roller part II82, between the roller part III99 and the roller part IV98, and between the plate part IV911 and the cut-off piece part 912, and puts the strip 90 into the plate groove part II133 and the plate groove part IV142 or puts the strip 90 into the plate groove part III134 and the plate groove part V143. After the strip 90 is put into the plate groove part II133 and the plate groove part IV142 or the plate groove part III134 and the plate groove part V143, the telescopic cylinder part II914 is moved. In the retracted state, the cut-off piece 912 is closed with the plate part IV 911 to cut the strip 90. The operator holds the handle part 68 and applies a pushing force to the beam part III 62 to move the wheel part I 64 and the wheel part II 65 on the second track 5, and the wheel part III 66 and the wheel part IV 67 in the beam part II 31 to move the strip 90 to the next installation station in the strip docking template 1, thereby realizing the installation of the strip 90 in the strip docking template 1. Put the buckle 80 in the middle gap between the end forked seat 13 and the middle forked seat 14, and the middle gap between the adjacent middle forked seats 14, so that the sheet part I 804 and the sheet part II 805 are in contact with the strip 90 respectively, connect the hook end of the hook part 803 with the end of the strip part I 801, heat the sheet part I 804 and the sheet part II 805, so that the sheet part I 804 and the sheet part II 805 are connected with the strip 90 respectively, or, stamp the edge surface of the strip part 901 to obtain the receiving groove body I 903, and put the rod part 24 on one of the edge surfaces of the strip part 901. The platform Ⅰ25 and the platform Ⅱ26 are placed in the accommodating groove body Ⅰ903 located on the other edge surface of the belt part 901, so that the line part Ⅱ27 is in contact with the strip 90, and the rod part 24, the platform Ⅰ25, the platform Ⅱ26 and the line part Ⅱ27 are heated, so that the rod part 24, the platform Ⅰ25, the platform Ⅱ26 and the line part Ⅱ27 are connected to the strip 90 respectively, and the platform Ⅰ25 and the platform Ⅱ26 are connected together, so that the connecting parts of the adjacent strips 90 are connected together by the buckle 80, and the geocell is obtained on the strip docking template 1. The telescopic cylinder part I17 is extended, the guide rod part 16 is moved outward in the accommodating trough body II18, the plate part I15 is separated from the opening of the trough part I131, and the geocell is taken out from the plate trough part I131, the plate part II132, the plate trough part II133, the plate trough part III134, the plate trough part IV142 and the plate trough part V143.

[0131] When verifying the present invention, the inventors abandoned the existing technical features of using polyethylene or polypropylene and other additives as raw materials to extrude strips, and first proposed the technical feature of placing a continuously distributed skeleton wire body in the components of the geocell, and obtained the first unexpected technical effect: the support of the wire part I902 on the belt part 901 was realized, the supporting strength of the strip 90 was improved, the use effect of the geocell was improved, and the operation of composing the geocell was optimized, and the second unexpected technical effect was obtained: the bonding effect by the wire part I902 was realized, The defects of aggregation by polyethylene or polypropylene are eliminated, the density of the strip 90 is improved, and the third unexpected technical effect is obtained: the surface-to-surface hot-melt connection between the sheet part I 804 and the sheet part II 805 and the belt part 901 is realized, and the connection strength between the buckle 80 and the strip 90 is improved, and the fourth unexpected technical effect is obtained: the multi-position hot-melt connection between the rod part 24, the platform part I 25, the platform part II 26 and the line part II 27 and the belt part 901 is realized, and the number of connection positions between the buckle 80 and the strip 90 is increased, and the fifth unexpected technical effect is obtained: The buckle 80 installation station located on the side, which is composed of the strip docking template 1 and the support seat 2, facilitates the installation operation of the buckle 80 and the strip 90, improves the geocell forming efficiency, and obtains the sixth unexpected technical effect: the fixed-length interception of the strip 90 by the mobile vehicle 6, the unwinding shaft 7, the fixed-length conveying roller assembly 8, the steering conveying roller assembly 9 and the cutting assembly 91 is realized, the geocell forming accuracy is improved, and the sixth unexpected technical effect is obtained: the continuous strip 90 is realized on the strip docking template 1 by the first rail 3, the walkway 4 and the second rail 5 The installation operation improves the geocell forming efficiency and obtains the seventh unexpected technical effect: modular forming of the strip 90 in a firm state is achieved by the strip docking template 1, the support seat 2, the first rail 3, the walkway 4, the second rail 5, the mobile vehicle 6, the unwinding shaft 7, the fixed-length conveyor roller assembly 8, the steering conveyor roller assembly 9 and the cutting assembly 91, eliminating the need to draw lines and connect the polyethylene or polypropylene strips 90 in two ways, increasing the forming area of ​​the geocell, eliminating the docking points between the geocells, and meeting the high support strength requirements of the roadbed.

[0132] In a second embodiment of the present invention, the strips 90 and the buckles 80 are connected to each other in a manner that a continuously distributed skeleton is placed in the assembly of the geocell.

[0133] The second embodiment of the present invention is based on the first embodiment. In the second embodiment of the present invention, the strip butt joint template 1 and the support base 2 are connected to each other in a manner that the strips 90 in a rigid state are butt-jointed and distributed according to the grid holes.

[0134] In this embodiment, a first accessory device is also included and the first accessory device is arranged to be distributed corresponding to the strip docking template 1. The first accessory device is arranged to include a first rail 3, a walkway 4, a second rail 5, a moving vehicle 6, a reel 7, a fixed-length conveyor roller assembly 8, a steering conveyor roller assembly 9 and a cutting assembly 91.

[0135] The second embodiment of the present invention is based on the first embodiment. The second embodiment of the present invention comprises the following steps: the support seat 2 supports the end face of the strip docking template 1, and the strip docking template 1 docks and distributes the strips 90 in a rigid state according to the grid holes.

[0136] The second embodiment of the present invention is based on the first embodiment.

[0137] The present invention has the following characteristics: 1. Due to the design of the strip 90 and the buckle 80, the geocell is formed through the strip 90 and the buckle 80, and the skeleton line body with continuous distribution is placed in the components of the geocell, which solves the technical problem of using polyethylene or polypropylene and other additives as raw materials to extrude the strips, thereby improving the use effect of the geocell device.

[0138] 2. Due to the design of the strip butt joint template 1 and the support seat 2, the end face support of the strip butt joint template 1 is achieved through the support seat 2, and the strip butt joint distribution of the strips 90 in a firm state according to the grid holes is achieved through the strip butt joint template 1, which solves the technical problem of using polyethylene or polypropylene and other additives as raw materials to extrude strips, thereby improving the use effect of the geocell device.

[0139] 3. Due to the design of the first rail 3, the walkway 4, the second rail 5, the moving vehicle 6, the unwinding shaft 7, the fixed-length conveying roller assembly 8, the steering conveying roller assembly 9 and the cutting assembly 91, the strip 90 conveying of the strip docking template 1 is achieved.

[0140] 4. Since the design limits the numerical range of the structural shape, the numerical range is the technical feature in the technical solution of the present invention, rather than a technical feature calculated by a formula or obtained through a limited number of tests. Tests have shown that the technical feature of this numerical range has achieved good technical effects.

[0141] 5. Due to the design of the technical features of the present invention, the effects of the individual and combined technical features have been shown through experiments to have various performance indicators of the present invention that are at least 1.7 times the existing performance indicators, and have been evaluated to have good market value.

[0142] There are other technical features connected with the strips 90 and the buckles 80 of the skeleton wire body placed in a continuously distributed manner in the components of the geocell, which are all embodiments of the present invention, and the technical features of the above-mentioned embodiments can be combined arbitrarily. In order to meet the requirements of the Patent Law, Patent Implementation Rules and Examination Guidelines, all possible combinations of the technical features in the above-mentioned embodiments will no longer be described.

[0143] The above embodiment is only one implementation form of the geocell device, forming device and method based on the skeleton provided by the present invention. Other variations of the scheme provided by the present invention, adding or reducing components or steps therein, or applying the present invention to other technical fields close to the present invention, all fall within the protection scope of the present invention.

Claims

1. A geocell device based on a skeleton line body, characterized by: The invention comprises a strip (90) having a line portion I (902) and a buckle (80) for connecting the connecting parts of adjacent strips (90) to each other.

2. The geocell device based on the skeleton line body according to claim 1 is characterized in that: The strips (90) and the buckles (80) are connected to each other in a manner that a continuously distributed skeleton line is placed in the assembly of the geocell.

3. The geocell device based on the skeleton line body according to claim 1 is characterized in that: A buckle (80) is provided at the connection portion of adjacent strips (90), and the buckle (80) is configured to be connected to the corner of the rhombus hole body formed by the adjacent strips (90).

4. The geocell device based on the skeleton line body according to claim 3 is characterized in that: The strip (90) is configured to include a belt portion (901) and a line portion I (902), and the belt portion (901) is configured to be accommodatingly connected to the line portion I (902), and one section of the belt portion (901) is configured to be connected to the buckle (80). Or, the belt portion (901) is configured as a polyethylene or polypropylene strip and the line portion I (902) is configured as a yarn rope-shaped body, the yarn rope-shaped body of the line portion I (902) is configured as a twisted body of glass fiber yarns, polyester fiber yarns, basalt fiber yarns, carbon fiber yarns or aramid fiber yarns, and the line portion I (902) is configured to be distributed in a divergent state in the belt portion (901), Or, the buckle (80) is configured to include a strip portion I (801), a strip portion II (802), a hook portion (803), a sheet portion I (804) and a sheet portion II (805), and the front and rear side surfaces of the strip portion I (801) are configured to be connected to one end of the inner side surface of the sheet portion II (805), the end of the strip portion II (802) is configured to be connected to the straight end of the hook portion (803), and the inner end surface of the strip portion II (802) is configured to be connected to the inner end surface of the sheet portion I (804), the hook body end of the hook portion (803) is configured to be connected to the end of the strip portion I (801), and the sheet portion I (804) and the sheet portion II (805) are respectively configured to be connected to the strip (90), Or, the strip part I (801) and the strip part II (802) are respectively configured as a hard plastic straight strip body and the hook part (803) is configured as a hard plastic L-shaped strip body, and the sheet part I (804) and the sheet part II (805) are respectively configured as a hot-melt plastic plate body, Alternatively, the strip (90) and the buckle (80) are arranged to be connected to each other in the middle, the buckle (80) is arranged to be arranged at intervals along the strip (90), and the sheet part I (804) and the sheet part II (805) are respectively arranged to be connected to the belt part (901), Or, a receiving groove body I (903) is provided on the edge surface of the belt portion (901) and the receiving groove body I (903) is configured to be connected to the buckle (80), Or, the receiving groove body I (903) is configured as a C-shaped opening body and the receiving groove body I (903) is configured to be arranged and distributed along the transverse midline of the belt portion (901) at intervals. Alternatively, the buckle (80) is configured to include a strip portion I (801), a strip portion II (802), a rod portion (24), a platform portion I (25), a platform portion II (26) and a line portion II (27), and one end surface of the rod portion (24) is configured to be connected to the upper portion of the inner end surface of the strip portion I (801), another end surface of the rod portion (24) is configured to be connected to the upper portion of the inner end surface of the strip portion II (802), and the lower portion of the inner end surface of the strip portion I (801) is configured to be connected to the inner end surface of the platform portion I (25). The lower part of the inner end surface of the strip part II (802) is arranged to be connected with the inner end surface of the platform part II (26), and the middle of the inner end surface of the strip part I (801) and the middle of the inner end surface of the strip part II (802) are respectively arranged to be connected with the inner end surface of the line part II (27), the outer end surface of the platform part I (25) is arranged to be connected with the outer end surface of the platform part II (26), and the rod part (24), the platform part I (25), the platform part II (26) and the line part II (27) are respectively arranged to be connected with the strip (90), Or, the rod portion (24), the platform portion I (25) and the platform portion II (26) are respectively configured as hot-melt plastic rod-shaped bodies and the line portion II (27) is configured as a hot-melt plastic rope-shaped body, Alternatively, the rod portion (24), the platform portion I (25) and the platform portion II (26) are respectively configured to be connected to the receiving tank body I (903) and the line portion II (27) is configured to be connected to the belt portion (901).

5. A geocell forming device based on a skeleton line body, characterized by: The invention comprises a strip butt joint template (1) used as a geocell template, and a support seat (2) arranged on the strip butt joint template (1).

6. The geocell forming device based on skeleton line body according to claim 5 is characterized in that: The strip butt joint template (1) and the support seat (2) are connected to each other in a manner that the strips (90) in a rigid state are butt-jointed and distributed according to the grid holes. Or, it also includes a first accessory device and the first accessory device is arranged to be distributed corresponding to the strip docking template (1), and the first accessory device is arranged to include a first rail (3), a walkway (4), a second rail (5), a moving vehicle (6), an unwinding shaft (7), a fixed-length conveying roller assembly (8), a steering conveying roller assembly (9) and a cutting assembly (91).

7. The geocell forming device based on skeleton line body according to claim 6 is characterized in that: A strip docking template (1) is arranged in a support seat (2); a first rail (3) and a second rail (5) are respectively arranged to be distributed corresponding to the strip docking template (1); a moving vehicle (6) is arranged on the first rail (3) and the second rail (5); a fixed-length conveying roller assembly (8) and a cutting assembly (91) are respectively arranged on the moving vehicle (6); and a steering conveying roller assembly (9) is arranged between the fixed-length conveying roller assembly (8) and the cutting assembly (91) and the moving vehicle (6); and a walking platform (4) is arranged on the first rail (3).

8. The geocell forming device based on skeleton line body according to claim 7 is characterized in that: The strip docking template (1) is configured to include a frame portion (10), a beam portion I (11), a leg portion (12), an end branch seat portion (13), an intermediate branch seat portion (14), a plate portion I (15), a guide rod portion (16) and a telescopic cylinder portion I (17), and a receiving groove body II (18) is arranged on the outer sides of the left and right frames of the frame portion (10), the ends of the beam portion I (11) are respectively configured to be connected to the inner end faces of the left and right frames of the frame portion (10), and the lower parts of the outer end faces of the left and right frames of the frame portion (10) are configured to be connected to the transverse end heads of the leg portion (12), the upper and lower parts of the outer end faces of the left and right frames of the frame portion (10) are respectively configured to be connected to the outer shell of the telescopic cylinder portion I (17), and the longitudinal end heads of the guide rod portion (16) are configured to be connected to the receiving groove body II ( 18) is connected in a sunken manner, the vertical end of the guide rod part (16) and the telescopic end of the telescopic cylinder part I (17) are respectively arranged to be connected to the end of the plate part I (15), and the inner side surface of the end branch seat part (13) is arranged to be connected to the outer side surfaces of the upper and lower frames of the frame part (10), the inner side surface of the middle branch seat part (14) is arranged to be connected to the outer side surface of the beam part I (11), and the middle branch seat part (14) is arranged to be distributed with the end branch seat part (13) in a manner of having an intermediate gap, the vertical part of the plug leg part (12) is arranged to be plug-in connected to the support seat (2), and the end branch seat part (13) located at the upper position is arranged to be distributed corresponding to the cutting component (91), and the frame part (10) is respectively arranged to be distributed corresponding to the first rail (3) and the second rail (5), Or, the frame portion (10) is configured as a rectangular frame-shaped body and the beam portion I (11) is configured as a strip-shaped body, the leg portion (12) is configured as an L-shaped rectangular strip-shaped body and the plate portion I (15) is configured as a rectangular sheet-shaped body, the guide rod portion (16) is configured as an L-shaped beam-shaped body having a dovetail longitudinal end portion and the telescopic cylinder portion I (17) is configured as an electric push rod, the receiving groove body II (18) is configured as a dovetail groove body and the dovetail longitudinal end portion of the guide rod portion (16) is configured to be connected to the receiving groove body II (18), the beam portion I (11) is configured to be arranged and distributed at intervals along the vertical center line of the frame portion (10) and the end branch seat portion (13) and the middle branch seat portion (14) are respectively configured to be arranged and distributed at intervals along the transverse center line of the frame portion (10), Or, the end bifurcation seat part (13) is arranged to include a plate groove part I (131), a plate part II (132), a plate groove part II (133) and a plate groove part III (134), and the middle of the open bottom wall of the plate groove part I (131) is arranged to be connected to the inner end face of the plate part II (132). One side part of the inner port of the plate groove part I (131) is arranged to be connected to the inner end port of the plate groove part II (133), and the other side part of the inner port of the plate groove part I (131) is arranged to be connected to the inner end port of the plate groove part III (134). The outer end face of the bottom wall of the plate groove part I (131) is arranged to be connected to the frame part (10), and the open part of the groove part I (131) is arranged to be connected to the plate part I (15). The outer end ports of the plate groove part II (133) and the plate groove part III (134) are respectively arranged to be connected to the middle bifurcation seat part (14) in a form of having an intermediate gap. Or, the plate groove part I (131), the plate groove part II (133) and the plate groove part III (134) are respectively arranged to be plate - like bodies with a C - shaped cross - section, and the plate groove part II (133) and the plate groove part III (134) are arranged to be distributed in a V - shape, and the plate part II (132) is arranged to be a sheet - like body. Or, the middle bifurcation seat part (14) is arranged to include a plate part III (141), a plate groove part IV (142) and a plate groove part V (143), and one side of the outer side face of the plate part III (141) is arranged to be connected to the inner side face of the plate groove part IV (142), the other side of the outer side face of the plate part III (141) is arranged to be connected to the inner side face of the plate groove part V (143), and the middle corner of the plate groove part IV (142) is arranged to be connected to the middle corner of the plate groove part V (143). The outer end ports of the plate groove part IV (142) and the plate groove part V (143) located on the edge are respectively arranged to be connected to the end bifurcation seat part (13) in a form of having an intermediate gap, and the outer end ports of the adjacent plate groove parts IV (142) located in the middle are arranged to be connected to each other in a form of having an intermediate gap. The outer end ports of the adjacent plate groove parts V (143) located in the middle are arranged to be connected to each other in a form of having an intermediate gap, and the inner side face of the plate part III (141) is arranged to be connected to the beam part I (11). Or, the plate part III (141) is arranged to be a sheet - like body, and the plate groove part IV (142) and the plate groove part V (143) are arranged to be > - shaped plate - like bodies with a C - shaped cross - section. Or, an accommodation hole body (29) is arranged on the upper end face part of the seat part (28) of the support seat (2), and the accommodation hole body (29) is arranged to be connected to the strip docking template (1), and the lower end face part of the seat part (28) is arranged to be connected to the ground surface. Or, the seat part (28) is arranged to be a block - like body, and the accommodation hole body (29) is arranged to be a rectangular hole body, and the accommodation hole bodies (29) are arranged to be spaced and arranged along the transverse center line of the seat part (28). Or, the first track (3) is configured to include a beam portion II (31) and a rail portion (32), and the upper end surface of the beam portion II (31) is configured to be connected to the outer side of the lower end surface of the rail portion (32), the lower end of the beam portion II (31) is configured to be connected to the foundation surface, and the upper part of the outer surface of the beam portion II (31) is configured to be connected to the walkway (4), and the rail portion (32) is configured to be contact-connected to the moving vehicle (6), Or, the beam part II (31) is configured as a columnar body and the rail part (32) is configured as an I-shaped strip body, and the side groove body located on the rail part (32) is configured to be connected to the moving vehicle (6), Alternatively, the walkway (4) is configured as an L-shaped sheet and the transverse end surface of the walkway (4) is configured to be connected to the first track (3). Or, the second rail (5) is configured as an I-shaped strip and the upper end surface of the second rail (5) is configured to be in contact connection with the moving vehicle (6), and the lower end surface of the second rail (5) is configured to be connected with the foundation surface. Alternatively, the mobile vehicle (6) is configured to include a plate portion III (61), a beam portion III (62), a beam portion IV (63), a wheel portion I (64), a wheel portion II (65), a wheel portion III (66), a wheel portion IV (67) and a handle portion (68), and the upper portion of the inner end surface of the plate portion III (61) is configured to be connected to the inner end surface of the beam portion III (62), the middle portion of the upper end surface of the plate portion III (61) is configured to be connected to the middle portion of the horizontal portion of the beam portion IV (63), and the lower edge of the end surface of the plate portion III (61) is configured to be connected to the wheel portion I (64) and the wheel portion II (65) through a pin shaft, and the outer side of the lower end surface of the beam portion III (62) is configured to be connected to the wheel portion III (66) and the wheel portion IV (67) through a pin shaft, and the beam portion III (62) ) are arranged to be connected to the longitudinal end face of the handle portion (68), the upper portion of the plate portion III (61) and the vertical portion of the beam portion IV (63) are respectively arranged to be connected to the fixed-length conveying roller assembly (8), and the inner side of the transverse portion of the beam portion IV (63) and the inner side of the beam portion III (62) are respectively arranged to be connected to the steering conveying roller assembly (9), the outer side of the transverse portion of the beam portion IV (63) and the outer side of the beam portion III (62) are arranged to be connected to the cutting assembly (91), and the middle of the plate portion III (61) is arranged to be connected to the unwinding shaft (7), the wheel portion I (64) and the wheel portion II (65) are respectively arranged to be contact-connected to the second track (5), and the wheel portion III (66) and the wheel portion IV (67) are respectively arranged to be contact-connected to the first track (3), Or, the plate portion III (61) is configured as a rectangular block and the beam portion III (62) is configured as a straight rectangular rod, the beam portion IV (63) is configured as an L-shaped rectangular rod, and the wheel portion I (64) and the wheel portion II (65) are respectively configured as circular disks having annular grooves on the peripheral side surfaces, the annular grooves of the wheel portion I (64) and the annular grooves of the wheel portion II (65) are respectively configured to be connected to the second track (5), and the wheel portion III (66) and the wheel portion IV (67) are respectively configured as circular disks, the wheel portion III (66) and the wheel portion IV (67) are configured to be clamped and connected to the first track (3), and the handle portion (68) is configured as a L-shaped rod, Or, the unwinding shaft (7) is configured as a rod-shaped body and the inner end surface portion of the unwinding shaft (7) is configured to be connected to the moving vehicle (6), Or, the fixed-length conveying roller assembly (8) is configured to include a roller portion I (81), a roller portion II (82) and a motor portion (83), and the end shaft of the motor portion (83) is configured to be connected to one of the end shafts of the roller portion I (81), the roller portion II (82) is configured to be distributed correspondingly to the roller portion I (81), and the end of the roller portion I (81) and the end of the roller portion II (82) are respectively configured to be rotatably connected to the moving vehicle (6), the housing of the motor portion (83) is configured to be connected to the moving vehicle (6) through an intermediate connecting rod, and the roller portion I (81) and the roller portion II (82) are respectively configured to be distributed correspondingly to the unwinding shaft (7) and the steering conveying roller assembly (9), Alternatively, the roller part I (81) and the roller part II (82) are respectively configured as a middle-shaped shaft-shaped body and the motor part (83) is configured as a control motor, Or, the steering conveying roller assembly (9) is configured to include a roller portion III (99) and a roller portion IV (98), and the roller portion III (99) is configured to be distributed correspondingly to the roller portion IV (98), the end of the roller portion III (99) and the end of the roller portion IV (98) are respectively configured to be rotatably connected to the moving vehicle (6), and the roller portion III (99) and the roller portion IV (98) are respectively configured to be distributed correspondingly to the fixed-length conveying roller assembly (8) and the cutting assembly (91), Alternatively, the roller portion III (99) and the roller portion IV (98) are respectively configured as a middle-shaped shaft-shaped body, Or, the cutting assembly (91) is configured to include a plate portion IV (911), a cutting piece portion (912), a frame portion (913) and a telescopic cylinder portion II (914), and the outer end of the cutting piece portion (912) is configured to be distributed correspondingly to the plate portion IV (911), the inner end surface of the cutting piece portion (912) is configured to be connected to the upper side of the inner end surface of the vertical portion of the frame portion (913), and the lower end head of the vertical portion of the frame portion (913) is configured to be connected to the telescopic end of the telescopic cylinder portion II (914), the outer shell of the telescopic cylinder portion II (914) and the upper and lower end surfaces of the plate portion IV (911) are respectively configured to be connected to the moving vehicle (6), and the transverse portion of the frame portion (913) is configured to be connected to the moving vehicle (6) in a through-type manner, and the plate portion IV (911) and the cutting piece portion (912) are configured to be distributed correspondingly to the steering conveying roller assembly (9), Alternatively, the plate portion IV (911) is configured as a rectangular sheet and the cut-off piece portion (912) is configured as a rectangular sheet in a heated state with a cutting edge at the outer end, the frame portion (913) is configured as an F-shaped frame and the telescopic cylinder portion II (914) is configured as an electric push rod, Or, the strip butt joint template (1) and the support seat (2) are arranged to be distributed in a vertical installation manner, and the strip butt joint template (1) and the support seat (2) and the first track (3), the walkway (4), the second track (5), the moving vehicle (6), the unwinding shaft (7), the fixed-length conveying roller assembly (8), the steering conveying roller assembly (9) and the cutting assembly (91) are arranged to be distributed in a strip conveying manner, Or, two support seats (2) are arranged on the strip docking template (1), two second rails (5) are arranged on the moving vehicle (6), the plate portion IV (911), the frame portion (913), the roller portion III (99) and the roller portion IV (98) are respectively arranged to be connected to the beam portion III (62) and the beam portion IV (63), the telescopic cylinder portion II (914) is arranged to be connected to the beam portion III (62), the roller portion I (81) and the roller portion II (82) are respectively arranged to be connected to the plate portion The plate groove portion IV (142) is arranged to be distributed correspondingly to the plate groove portion II (133), and the plate groove portion V (143) is arranged to be distributed correspondingly to the plate groove portion III (134).

9. A method for forming a geocell based on a skeleton line, characterized in that the steps are: The support seat (2) enables end surface support of the strip butt joint template (1), and the strip butt joint template (1) enables butt joint distribution of the strips (90) in a firm state according to the grid holes.

10. The method for forming a geocell based on a skeleton body according to claim 9, characterized in that the steps are: When the geocell needs to be formed, the raw material with the belt portion (901) and the wire portion I (902) are mixed and extruded to obtain the strip (90). The vertical portion of the leg portion (12) of the strip docking template (1) corresponding to the geocell is inserted into the receiving hole (29), so that the strip docking template (1) is installed on the outside of the beam portion II (31). The strip (90) is rolled and installed on the unwinding shaft (7). The operator is located on the walking platform (4) and puts the strip (90) between the roller portion I (81) and the roller portion II (82), and then puts the moving strip (90) between the roller portion III (99) and the roller portion IV (98), and then puts the moving strip (90) between the plate portion IV (911) and the cut piece portion (912). The telescopic cylinder part II (914) is in an extended state, the telescopic cylinder part I (17) is in a contracted state, the guide rod part (16) is moved inward in the accommodating groove body II (18), the plate part I (15) is placed on the open end of the groove part I (131), the end of the strip (90) is placed between the plate groove part I (131) and the plate part II (132), the motor part (83) is in a working state, the roller part I (81) is rotated on the plate part III (61) and the beam part IV (63), the strip (90) is rolled on the unwinding shaft (7) and released at a fixed length, and the strip (90) is moved between the roller part I (81) and the roller part II (82), between the roller part III (99) and the roller part IV (98), and between the plate part IV (911) and the cut piece part (912). The strip (90) is moved to be placed in the plate groove part II (133) and the plate groove part IV (142) or the strip (90) is placed in the plate groove part III (134) and the plate groove part V (143). After the strip (90) is placed in the plate groove part II (133) and the plate groove part IV (142) or the strip (90) is placed in the plate groove part III (134) and the plate groove part V (143), the telescopic cylinder part II (914) is in a contracted state, the cutting piece part (912) and the plate part IV (911) are closed, and the strip (90) is cut. The operator holds the handle part (68) and applies a pushing force to the beam part III (62), so that the wheel part I (64) and the wheel part II (65) move on the second track (5), so that the wheel part III (66) and the wheel part IV ( 67) moves in beam part II (31) to move the strip (90) to the next installation station in the strip docking template (1), thereby realizing the installation of the strip (90) in the strip docking template (1), placing the buckle (80) in the intermediate gap between the end branch seat (13) and the middle branch seat (14), and the intermediate gap between adjacent middle branch seats (14), so that the sheet part I (804) and the sheet part II (805) are respectively in contact with the strip (90), the hook end of the hook part (803) is connected to the end of the strip part I (801), and the sheet part I (804) and the sheet part II (805) are heated to connect the sheet part I (804) and the sheet part II (805) to the strip (90) respectively, or,A receiving groove body I (903) is obtained by stamping on the edge surface of the belt portion (901), the rod portion (24) is placed in the receiving groove body I (903) located on one of the edge surfaces of the belt portion (901), the platform portion I (25) and the platform portion II (26) are placed in the receiving groove body I (903) located on the other edge surface of the belt portion (901), so that the line portion II (27) is in contact with the strip (90), and the rod portion (24), the platform portion I (25), the platform portion II (26) and the line portion II (27) are heated so that the rod portion (24), the platform portion I (25), the platform portion II (26) and the line portion II (27) are respectively in contact with the strip (90). 90) are connected together, so that the platform part I (25) and the platform part II (26) are connected together, so that the connecting parts of the adjacent strips (90) are connected together by the buckle (80), and the geocell is made on the strip docking template (1), and the telescopic cylinder part I (17) is in an extended state, so that the guide rod part (16) moves outward in the receiving groove body II (18), so that the plate part I (15) and the opening of the groove part I (131) are separated, and the geocell is taken out from the plate groove part I (131), the plate part II (132), the plate groove part II (133), the plate groove part III (134), the plate groove part IV (142) and the plate groove part V (143).

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