A cross-shaped seed rope biological sand barrier production equipment

Abstract

The present invention belongs to the technical field of seed rope production, and in particular to a cross-shaped seed rope biological sand barrier production device. In order to solve the problem of how to develop a sand barrier production device that can combine and assemble seed ropes and sand barrier belts, the following scheme is proposed, including a supporting back plate, a seed rope fixing component, and an outer coat bag body docking component. The present invention can first fix the seed rope, and then the outer coat bag body is sleeved on the outside of the seed rope to realize the combination of the outer coat bag body and the seed rope, and by fixing the seed rope, it can be ensured that the seed rope is in a suspended state in the bag during laying, thereby promoting plant germination; the two side edges of the strip can be docked together through the strip docking component, so that the side edges of the strip are respectively clamped and fixed on the side edges of the mesh belt, so as to realize the fixed combination of the strip and the mesh belt to realize the production of the seed rope biological sand barrier, and the docking edge strips on both sides of the produced seed rope biological sand barrier can be opened through the side hole pressing component.

Description

Technical Field

[0001] The invention relates to a sand barrier production device, in particular to a cross-shaped seed rope biological sand barrier production device, belonging to the technical field of biological sand barrier preparation. Background Art

[0002] Sand barriers are effective engineering sand-fixing measures to reduce wind speed and fix sand surface. Existing sand barriers are mainly formed by manually filling sand into sandbags and laying them on the desert to form mechanical sand barriers. In order to be able to play a role in sand prevention and fixation while also restoring the desert ecosystem, seed ropes will be set in the laid sand barrier belt to form a combined biological sand barrier of one rope and one bag, so as to meet the needs of sand prevention and ecological restoration in the sandy environment, improve construction efficiency, and implement in an integrated manner.

[0003] As for the production and preparation of this kind of biological sand barrier, in the existing technology, seed ropes are often manually inserted into long strips of bags to achieve the combination of seed ropes and sand barrier belts. However, the sand barrier prepared in this way can only be laid in a single strip, and in the actual laying process, the sand barrier needs to be laid in various forms, such as laying the sand barrier in a cross shape so that the end of one of the sand barriers can be combined with other sand barriers to form a strong connection, thereby improving the sand prevention and fixation effect. However, the existing sand barriers cannot assemble the end parts well, such as a grouting-type planted sand barrier and a grid sand barrier disclosed in announcement number CN211285557U. The grid sand barrier is composed of grouting-type planted sand barriers arranged in a criss-cross pattern. The existing technology requires additional assembly of fixed through holes on both sides of the sand barrier, which greatly affects the laying efficiency. Secondly, in order to ensure that the height of the seed rope inside the sandbag is determined to promote For plant germination, it is often necessary to suspend and fix the seed rope in a sand barrier bag. However, the prior art is to provide a seed layer, which is formed by adhering plant seeds to the inner wall of the upper side wall of the containing cavity through paste. This method cannot ensure that the seed layer can be suspended in the sand barrier, and then when laying, it cannot ensure that the seeds are at an appropriate depth, which is not conducive to the seeds absorbing moisture and nutrients in the soil. In addition, the prior art also discloses the use of bio-based degradable fiber sandbag sand barriers, that is, filling environmentally friendly and pollution-free bio-based degradable fiber sandbags with locally sourced sand to form a barrier body, according to the actual wind speed, wind direction, sand particle size and composition, according to different protection purposes such as consolidation, blocking and transportation, a complete sand prevention and control technology system suitable for local sand is formed. However, there is currently no relevant research on the specific production and preparation equipment of this type of sand barrier. Based on this, the present application discloses a cross-shaped seed rope biological sand barrier production equipment. Summary of the invention

[0004] The invention provides a cross-shaped seed rope biological sand barrier production device to solve the problem of how to develop a sand barrier production device capable of combining and assembling a seed rope and a sand barrier belt.

[0005] The present invention achieves the above-mentioned purpose through the following technical solutions: a cross-shaped seed rope biological sand barrier production equipment, including a supporting backboard, a seed rope fixing assembly and an outer jacket bag body docking assembly, the seed rope fixing assembly and the outer jacket bag body docking assembly are both connected to the supporting backboard, and the seed rope fixing assembly and the outer jacket bag body docking assembly are arranged in sequence along the conveying direction of the produced sand barrier;

[0006] The seed rope fixing assembly includes a seed rope reel, a mesh belt reel and a mesh belt hot-melt butt assembly. The mesh belt reel is respectively arranged on the upper and lower sides of the seed rope reel. The mesh belt conveyed by the mesh belt reel passes through the mesh belt hot-melt butt assembly.

[0007] The outer sleeve body docking assembly includes a strip roll, an arc-shaped docking plate, an arc-surface guide sleeve and an arc-surface folding plate. The strip rolls are respectively arranged on the outside of the mesh belt roll. The arc-surface guide sleeves are symmetrically provided with two upper and lower arc-surface guide sleeves, and a gap is left between the two arc-surface guide sleeves. The arc-shaped docking plate and the arc-surface folding plate are respectively located on the outside of the arc-surface guide sleeve. The connection position of the arc-shaped docking plate is located at one end of the arc-surface guide sleeve close to the mesh belt hot-melt docking assembly, and a gap is left between the arc-shaped docking plate and the outer tube wall of the arc-surface guide sleeve. The connection position of the arc-shaped folding plate is located at one end of the arc-surface guide sleeve away from the mesh belt hot-melt docking assembly, and a gap is left between the arc-shaped folding plate and the outer tube wall of the arc-surface guide sleeve. Strip docking assemblies and side hole pressing assemblies are arranged at both ends of the arc-shaped docking plate, and the strip docking assemblies and the side hole pressing assemblies are arranged in sequence along the conveying direction of the produced sand barrier;

[0008] The strip butt joint assembly includes a butt clamping plate and a strip butt joint electric heating roller. The butt clamping plate is integrally connected to both ends of the arc-shaped butt joint plate, and the strip butt joint electric heating roller is embedded in the inner side panel opposite to the butt clamping plate.

[0009] The side hole pressing assembly includes a C-shaped hole pressing plate, a reciprocating electric hydraulic rod and a hole pressing seat. The C-shaped hole pressing plate is connected to one side of the upper and lower docking clamping plates, the reciprocating electric hydraulic rod is vertically connected to the top of the C-shaped hole pressing plate, the hole pressing seat is located on the inner side of the C-shaped hole pressing plate, and the hole pressing seat is fixedly connected to the movable end of the reciprocating electric hydraulic rod.

[0010] As a further solution of the present invention: the bottom end of the supporting back plate is connected to the supporting bottom plate, the supporting back plate and the supporting bottom plate are vertically butt-connected, the upper plate surface of the supporting bottom plate is vertically connected to a rope roll support rod, the connection position of the rope roll support rod is located at the front end of the sand barrier production and transportation direction, and a rope roll support plate is fixedly sleeved on the rod body of the rope roll support rod.

[0011] As a further solution of the present invention: the upper plate surface of the supporting base plate is also vertically connected to a sand barrier belt winding rotating rod, the connection position of the sand barrier belt winding rotating rod is located at the end of the sand barrier production and transportation direction, a sand barrier belt support plate is fixedly sleeved on the rod body of the sand barrier belt winding rotating rod, and the lower plate surface of the supporting base plate is fixedly connected to a winding motor, and the rotating shaft of the winding motor is fixedly connected to the sand barrier belt winding rotating rod coaxially.

[0012] As a further solution of the present invention: a mesh belt rotating rod is sleeved at the center of the mesh belt roll, and the mesh belt rotating rod is vertically rotatably connected to the supporting back plate; a strip rotating rod is sleeved at the center of the strip roll, and the strip rotating rod is vertically rotatably connected to the supporting back plate; the upper and lower sides of the mesh belt conveyed by the mesh belt roll and the upper and lower sides of the strip belt conveyed by the strip roll are clamped with guide clamping rods, and the guide clamping rods are vertically rotatably connected to the supporting back plate.

[0013] As a further solution of the present invention: the mesh belt hot melt butt joint assembly includes a butt joint shell, a mesh belt butt joint electric heating roller, a positioning connecting rod and a rotating rod which are arranged in an upper and lower distribution shape. The mesh belt butt joint electric heating roller and the rotating rod are both arranged in the butt joint shell. The mesh belt butt joint electric heating roller is coaxially sleeved on the rod body of the rotating rod. The mesh belt butt joint electric heating roller is electrically connected to the external power supply. Both ends of the rotating rod are rotatably connected to the butt joint shell. One end of the butt joint shell close to the supporting back plate is fixedly connected to the positioning connecting rod, and the butt joint shell is vertically fixedly connected to the supporting back plate through the positioning connecting rod.

[0014] As a further solution of the present invention: a docking plate connecting rod is connected to the middle part of the arc-shaped docking plate, and the arc-shaped docking plate is fixedly connected to the supporting back plate through the docking plate connecting rod. A plurality of strip docking electric heating rollers are arranged on the docking clamping plate. The strip docking electric heating roller coaxial sleeve is provided with a roller connecting shaft, and the roller connecting shaft is rotatably connected in the body of the docking clamping plate.

[0015] As a further solution of the present invention: the C-shaped hole pressing plate of the side hole pressing assembly is clamped on the outside of the sand barrier side strip, and the hole pressing seat is located above the sand barrier side strip, the bottom edge of the hole pressing seat is integrated with an annular hole pressing tooth, and a through-hole is opened on the plate body of the C-shaped hole pressing plate located below the sand barrier side strip, and the opening position of the through-hole is located directly below the hole pressing seat.

[0016] As a further solution of the present invention: a push plate is movably arranged directly below the hole pressing seat, and a compression spring is connected between the hole pressing seat and the push plate.

[0017] As a further solution of the present invention: one end of the arc-surface guide sleeve close to the mesh belt hot-melt butt-jointing assembly is connected to a catheter connecting rod, and the arc-surface guide sleeve is fixedly connected to the supporting back plate through the catheter connecting rod.

[0018] As a further solution of the present invention: the arc folding plate includes a guide arc panel, a folding plate connecting rod and a folding inclined panel, the folding plate connecting rod and the folding inclined panel are integrally connected at both ends of the guide arc panel, the guide arc panel is fixedly connected to the docking plate connecting rod through the folding plate connecting rod, the folding inclined panel of one arc folding plate is located below the edge strip on one side of the sand barrier, and the folding inclined panel of the other arc folding plate is located above the edge strip on the other side of the sand barrier.

[0019] The beneficial effects of the present invention are:

[0020] 1. The present invention is provided with a supporting back plate, a seed rope fixing assembly and an outer bag body docking assembly. In the production process of the seed rope biological sand barrier, the seed rope can be fixed first, and then the outer bag body is sleeved on the outside of the seed rope to realize the combination of the outer bag body and the seed rope. In addition, by fixing the seed rope, it can be ensured that the seed rope is suspended in the bag during laying, thereby promoting plant germination.

[0021] 2. The seed rope fixing assembly provided in the present invention comprises a seed rope reel, a mesh belt reel and a mesh belt hot-melt butt assembly. Since the mesh belt reel is arranged on the upper and lower sides of the seed rope reel, the seed rope conveyed by the seed rope reel is located between the mesh belts conveyed by the mesh belt reel, which is equivalent to clamping the seed rope body by the upper and lower mesh belts. Then, after passing through the mesh belt hot-melt butt assembly, the upper and lower mesh belts can be placed together and fixed together by hot-melt butt assembly, that is, the rope body of the seed rope can be fixed by the mesh belt, and the mesh belt is used to fix the seed rope. On the one hand, the fixing effect of the seed rope can be improved. On the other hand, when filling sand into the sand barrier, the sand can pass through the mesh holes of the mesh belt, so it can be ensured that both sides of the mesh belt can be filled with sand.

[0022] 3. The outer sleeve body docking assembly provided in the present invention comprises a strip roll, an arc-shaped docking plate, an arc-shaped guide sleeve and an arc-shaped folding plate. The gap between the two arc-shaped guide sleeves enables the mesh belt clamping the seed rope to be transported from the gap between the two arc-shaped guide sleeves, and the strip transported by the strip roll can first pass through the gap between the arc-shaped docking plate and the outer tube wall of the arc-shaped guide sleeve, and then pass through the gap between the arc-shaped folding plate and the outer tube wall of the arc-shaped guide sleeve, so that the strip body can be plasticized through the arc-shaped tube body of the arc-shaped guide sleeve, so that the upper and lower strips can be cylindrical on the tube body of the arc-shaped guide sleeve, and the two side edges of the strip can be docked together through the strip docking assembly, so that the side edges of the strip are respectively clamped and fixed to the side edges of the mesh belt, so as to realize the fixed combination of the strip and the mesh belt to realize the production of the seed rope biological sand barrier, and the docking edge strips on both sides of the produced seed rope biological sand barrier can be opened through the side hole pressing assembly;

[0023] 4. The strip docking component provided in the present invention includes a docking clamping plate and a strip docking electrothermal roller. When the strip passes through the upper and lower docking clamping plates on the side of the strip, the strip docking electrothermal roller can realize the hot-melt pressing and fixing of the side of the strip, that is, the side of the strip can be hot-melt combined with the side of the mesh belt.

[0024] 5. The side hole pressing component provided in the present invention includes a C-shaped hole pressing plate, a reciprocating electro-hydraulic rod and a hole pressing seat. The hole pressing seat can move up and down under the action of the reciprocating electro-hydraulic rod, so as to press holes in the side of the sand barrier passing through the C-shaped hole pressing plate, so that multiple holes can be formed in the side of the sand barrier, which is convenient for forming a cross-shaped sand barrier through the combination connection of the holes during later laying. It should be noted that during laying, according to the actual laying requirements, other types of laying shapes can also be formed through different combination docking methods of the holes, such as forming a square-shaped sand barrier combination or a Feng-shaped sand barrier combination. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 is a schematic diagram of the overall structure of the present invention;

[0026] Figure 2 is a schematic diagram of the combined structure of the seed rope fixing component and the outer bag body docking component of the present invention;

[0027] Figure 3 is a schematic diagram of the connection structure between the seed rope fixing component and the support back plate of the present invention;

[0028] Figure 4 is a schematic diagram of the seed rope fixing component structure of the present invention;

[0029] Figure 5 is a schematic diagram of the mesh belt hot-melt docking component structure of the present invention;

[0030] Figure 6 is a schematic cross-sectional view of the mesh belt hot-melt docking component of the present invention;

[0031] Figure 7 is a schematic diagram of the side hole pressing component structure of the present invention;

[0032] Figure 8 is a schematic cross-sectional view of the hole pressing seat of the present invention;

[0033] Fig. 9 is a schematic diagram of the arc-shaped docking plate structure of the present invention;

[0034] Fig.10 is of the present invention Fig. 9 the schematic diagram of the structure at A in

[0035] Fig.11 is a schematic diagram of the arc surface guiding sleeve structure of the present invention;

[0036] Fig.12 It is a schematic diagram of the connection structure of the arc-shaped butt-jointed plate and the arc-surface folded plate of the present invention;

[0037] Fig.13 It is a schematic diagram of the structure of the curved folding plate of the present invention.

[0038] In the figure: 1, support back plate, 11, support bottom plate, 12, rope roll support rod, 13, rope roll support plate, 14, sand barrier belt winding rod, 15, sand barrier belt support plate, 16, winding motor, 2, seed rope roll, 3, mesh belt roll, 31, mesh belt roll rod, 4, strip roll, 41, strip roll rod, 5, guide clamping rod, 6, mesh belt hot melt docking assembly, 61, docking shell, 62, mesh belt docking electric heating roller, 63, positioning connecting rod, 64, rotating rod, 7, arc docking plate, 71 , side hole pressing assembly, 711, C-type hole pressing plate, 712, reciprocating electric hydraulic rod, 713, hole pressing seat, 714, perforation, 715, annular hole pressing teeth, 716, compression spring, 717, push plate, 72, docking plate connecting rod, 73, docking clamping plate, 74, strip docking electric heating roller, 75, roller connecting shaft, 8, arc guide sleeve, 81, catheter connecting rod, 9, arc folding plate, 91, guide arc panel, 92, folding plate connecting rod, 93, folding inclined panel. DETAILED DESCRIPTION

[0039] 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.

[0040] Embodiment 1

[0041] like Figure 1 , Figure 2 , Figure 3 , Figure 7 , Fig. 9 and Fig.10 As shown, a cross-shaped seed rope biological sand barrier production equipment includes a supporting backboard 1, a seed rope fixing component and an outer bag body docking component, the seed rope fixing component and the outer bag body docking component are both connected to the supporting backboard 1, the seed rope fixing component and the outer bag body docking component are sequentially arranged along the conveying direction of the produced sand barrier, and in the production process of the seed rope biological sand barrier, the seed rope can be fixed first, and then the outer bag body is sleeved on the outside of the seed rope to realize the combination of the outer bag body and the seed rope, and by fixing the seed rope, it can be ensured that the seed rope is in a suspended state in the bag during laying, so as to promote plant germination;

[0042] The seed rope fixing assembly includes a seed rope reel 2, a mesh belt reel 3 and a mesh belt hot-melt butt assembly 6. The mesh belt reel 3 is respectively arranged on the upper and lower sides of the seed rope reel 2, and the mesh belt conveyed by the mesh belt reel 3 passes through the mesh belt hot-melt butt assembly 6. Since the mesh belt reel 3 is arranged on the upper and lower sides of the seed rope reel 2, the seed rope conveyed by the seed rope reel 2 is located between the mesh belts conveyed by the mesh belt reel 3, which is equivalent to clamping the seed rope body through the upper and lower mesh belts, and then passing through the mesh belt hot-melt butt assembly 6, the upper and lower mesh belts can be placed together and fixed together by hot-melt butt assembly, that is, the rope body of the seed rope can be fixed by the mesh belt, and the mesh belt is used to fix the seed rope. On the one hand, the fixing effect of the seed rope can be improved, and on the other hand, when filling sand into the sand barrier, the sand can pass through the mesh holes of the mesh belt, so it can be ensured that both sides of the mesh belt can be filled with sand;

[0043] The outer bag body docking assembly includes a strip roll 4, an arc-shaped docking plate 7, an arc-shaped guide sleeve 8 and an arc-shaped folding plate 9. The strip rolls 4 are respectively arranged on the outside of the mesh belt roll 3. The arc-shaped guide sleeves 8 are symmetrically provided with two upper and lower parts, and a gap is left between the two arc-shaped guide sleeves 8. The arc-shaped docking plate 7 and the arc-shaped folding plate 9 are respectively located on the outside of the arc-shaped guide sleeves 8. The connection position of the arc-shaped docking plate 7 is located at one end of the arc-shaped guide sleeve 8 close to the mesh belt hot-melt docking assembly 6, and a gap is left between the arc-shaped docking plate 7 and the outer tube wall of the arc-shaped guide sleeve 8. The connection of the arc-shaped folding plate 9 The connection position is located at one end of the arc-surface guide sleeve 8 away from the mesh belt hot-melt butt assembly 6, and a gap is left between the arc-surface folding plate 9 and the outer tube wall of the arc-surface guide sleeve 8. The two ends of the arc-shaped butt plate 7 are provided with a strip butt assembly and a side hole pressing assembly 71, and the strip butt assembly and the side hole pressing assembly 71 are arranged in sequence along the conveying direction of the produced sand barrier. The gap between the two arc-surface guide sleeves 8 enables the mesh belt holding the seed rope to be conveyed from the gap between the two arc-surface guide sleeves 8, and the strip conveyed by the strip roll 4 can first pass through the arc-surface butt plate 7 and the arc The gap between the outer tube wall of the curved guide sleeve 8 is passed through, and then the gap between the curved folding plate 9 and the outer tube wall of the curved guide sleeve 8 is passed through, so that the belt body of the strip can be plasticized through the curved tube body of the curved guide sleeve 8, so that the upper and lower strips can be cylindrical on the tube body of the curved guide sleeve 8, and the two side edges of the strip can be butted together through the strip butt assembly, so that the side edges of the strip are respectively clamped and fixed on the side edges of the mesh belt, so as to realize the fixed combination of the strip and the mesh belt to realize the production of the seed rope biological sand barrier, and the produced seed can be dented through the side hole pressing assembly 71. The butt-jointed side strips on both sides of the sub-rope biological sand barrier are opened with holes, and then when the sub-rope biological sand barrier is used, the sand barrier can be laid in a cross-shaped distribution, that is, one of the sand barriers can be laid horizontally, and the other two sand barriers can be laid vertically on both sides. The holes opened in the side strips on both sides of the end of the vertical sand barrier and the holes opened in one side strip of the horizontal sand barrier are combined together by connecting ropes to form a cross-shaped combined sand barrier, and as the produced sand barrier is continuously transported, the side strips on both sides of the sand barrier can be folded respectively by the arc folding plate 9, so as to facilitate the sand barrier to be rolled together;

[0044] The strip butt assembly includes a butt clamping plate 73 and a strip butt electric heat roller 74. The butt clamping plate 73 is integrally connected to the two ends of the arc-shaped butt plate 7. The strip butt electric heat roller 74 is embedded in the inner side panel body opposite to the butt clamping plate 73. When the side edge of the strip passes through the upper and lower butt clamping plates 73, the strip butt electric heat roller 74 can realize hot-melt pressing and fixing of the side edge of the strip, that is, the side edge of the strip can be hot-melted and combined with the side edge of the mesh belt.

[0045] The side hole-pressing assembly 71 includes a C-shaped hole-pressing plate 711, a reciprocating electro-hydraulic rod 712, and a hole-pressing seat 713. The C-shaped hole-pressing plate 711 is connected to one side of the upper and lower docking clamping plates 73. The reciprocating electro-hydraulic rod 712 is vertically connected above the C-shaped hole-pressing plate 711. The hole-pressing seat 713 is located inside the C-shaped hole-pressing plate 711, and the hole-pressing seat 713 is fixedly connected to the movable end of the reciprocating electro-hydraulic rod 712, enabling the hole-pressing seat 713 to move up and down under the action of the reciprocating electro-hydraulic rod 712. Furthermore, it can press holes in the side of the sand barrier passing through the C-shaped hole-pressing plate 711, so that multiple holes can be formed on the side of the sand barrier, and thus it is convenient to form a cross-shaped sand barrier through the combined connection of the holes during later laying. It should be noted that during laying, according to the actual laying requirements, other types of laying shapes can also be formed through different combined docking methods of the holes, such as forming a square-shaped sand barrier combination or a feng-shaped sand barrier combination.

[0046] Embodiment 2

[0047] Improved on the basis of Embodiment 1:

[0048] As Figures 1 to 4 shown, the bottom end of the support back plate 1 is connected with a support bottom plate 11. The support back plate 1 and the support bottom plate 11 are perpendicularly butt-connected. A rope reel support rod 12 is vertically connected to the upper plate surface of the support bottom plate 11. The connection position of the rope reel support rod 12 is at the front end in the sand barrier production and transportation direction, and a rope reel support plate 13 is fixedly sleeved on the rod body of the rope reel support rod 12. It is convenient to combine and connect this production equipment with the support platform through the support bottom plate 11, that is, the fixed installation of this production equipment can be realized. And the provided rope reel support rod 12 can be used to sleeve the seed rope reel 2, and the rope reel support plate 13 can lift the seed rope reel 2 to facilitate the conveying of the seed rope.

[0049] Furthermore, the upper plate surface of the supporting base plate 11 is also vertically connected to a sand barrier belt winding rotating rod 14, the connection position of the sand barrier belt winding rotating rod 14 is located at the end of the sand barrier production and transportation direction, a sand barrier belt support plate 15 is fixedly sleeved on the rod body of the sand barrier belt winding rotating rod 14, and the lower plate surface of the supporting base plate 11 is fixedly connected to a winding motor 16, the rotating shaft of the winding motor 16 is coaxially fixedly connected with the sand barrier belt winding rotating rod 14, and the sand barrier belt winding rotating rod 14 can be driven by the winding motor 16 to rotate, and then the produced sand barrier is wound around the rod body of the sand barrier belt winding rotating rod 14, and the sand barrier belt support plate 15 can support the wound sand barrier. It should be noted that in the entire production process, the sand barrier can be driven to be wound up by only driving the winding motor 16, so as to drive the seed rope reel 2, the mesh belt reel 3 and the strip reel 4 to respectively transport the seed rope and the mesh belt The belt and strips can ensure the consistency of the conveying rate, and when the sand barrier is rolled up, the sand barrier is stretched up and down and flattened for rolling up, so the mesh belt inside the sand barrier is in a folded state. Therefore, when laying in the later stage, the sand barrier can be filled and expanded again by filling with sand, and the seed rope can be suspended inside the sand barrier under the action of the mesh belt. When the sand barrier is laid on the sand, the seed rope can be in a state higher than the surface of the sand, which can effectively promote the germination conditions of the plants on the seed rope, and ensure that the seeds are at an appropriate depth, which is conducive to their absorption of moisture and nutrients in the soil, while avoiding being blown away by wind and sand or washed away by rain, thereby ensuring the survival of the seeds. Secondly, the winding motor 16 is intermittent motion controlled, which can enable the produced sand barrier to be intermittently wound, thereby facilitating the side hole pressing assembly 71 to press holes at the precise position of the sand barrier edge strip.

[0050] Furthermore, a mesh belt reel 3 is provided with a mesh belt rotating rod 31 at the center, and the mesh belt reel 3 is vertically rotatably connected to the supporting back plate 1; a strip reel 4 is provided with a strip reel rotating rod 41 at the center, and the strip reel rotating rod 41 is vertically rotatably connected to the supporting back plate 1; the upper and lower sides of the mesh belt body conveyed by the mesh belt reel 3 and the upper and lower sides of the strip body conveyed by the strip reel 4 are clamped with guide clamping rods 5, and the guide clamping rods 5 are vertically rotatably connected to the supporting back plate 1, so that the mesh belt reel 3 can convey the mesh belt through the arranged mesh belt rotating rod 31, and the strip reel 4 can convey the strip through the arranged strip reel rotating rod 41, and in the conveying process of the mesh belt and the strip, the belt body can be limited and clamped by the guide clamping rod 5 to ensure that the mesh belt and the strip body can be conveyed in a flat and straight state.

[0051] like Figure 1 , Figure 2 , Figures 5 to 13As shown, the mesh belt hot-melt butt-jointing assembly 6 includes a butt-jointing shell 61, a mesh belt butt-jointing electric heating roller 62, a positioning connecting rod 63 and a rotating rod 64 which are arranged in an upper and lower distribution shape. The mesh belt butt-jointing electric heating roller 62 and the rotating rod 64 are both arranged in the butt-jointing shell 61. The mesh belt butt-jointing electric heating roller 62 is coaxially sleeved on the rod body of the rotating rod 64. The mesh belt butt-jointing electric heating roller 62 is electrically connected to the external power supply. Both ends of the rotating rod 64 are rotatably connected to the butt-jointing shell 61. The end of the butt-jointing shell 61 close to the supporting back plate 1 is fixedly connected with the positioning connecting rod 63, and the butt-jointing shell 61 is vertically fixedly connected to the supporting back plate 1 through the positioning connecting rod 63, so that the mesh belt butt-jointing electric heating roller 62 can rotate in the butt-jointing shell 61, and then when the belt body of the mesh belt passes through the mesh belt hot-melt When the assembly 6 is docked, the mesh belt docking electric heating roller 62 can heat and melt the belt body of the mesh belt, that is, it can achieve a fixed connection between the upper and lower mesh belt bodies. It should be noted that two mesh belt docking electric heating rollers 62 are sleeved on the rod body of the rotating rod 64, and a gap is left between the two mesh belt docking electric heating rollers 62. The sleeve positions of the two mesh belt docking electric heating rollers 62 on the rod body of the rotating rod 64 are symmetrically distributed, so that when the mesh belt passes through the mesh belt hot-melt docking assembly 6, the gap left between the two mesh belt docking electric heating rollers 62 can facilitate the seed rope to pass through, that is, when the mesh belt is hot-pressed and docked, it can be ensured that the rope body of the seed rope will not be subjected to hot pressure, thereby ensuring the integrity of the seed rope body and at the same time not affecting the seeds wrapped in the seed rope body.

[0052] Furthermore, a docking plate connecting rod 72 is connected to the middle part of the body of the arc-shaped docking plate 7, and the arc-shaped docking plate 7 is fixedly connected to the supporting back plate 1 through the docking plate connecting rod 72. A plurality of strip docking electric heating rollers 74 are arranged on the docking clamping plate 73. The strip docking electric heating rollers 74 are coaxially sleeved with roller connecting shafts 75. The roller connecting shafts 75 are rotatably connected in the body of the docking clamping plate 73, so that the strip docking electric heating rollers 74 can rotate on the relative plate surfaces of the docking clamping plate 73, so that the side edges of the upper and lower strips can be clamped and hot-pressed, and can be conveyed more smoothly, and multiple strip docking electric heating rollers 74 are used to perform multiple hot pressing on the side edges of the strips to ensure the firmness of the connection after hot pressing.

[0053] Furthermore, the C-shaped hole pressing plate 711 of the side hole pressing assembly 71 is clamped on the outer side of the sand barrier side strip, and the hole pressing seat 713 is located above the sand barrier side strip, and the bottom edge of the hole pressing seat 713 is integrally connected with an annular hole pressing tooth 715, and the C-shaped hole pressing plate 711 is provided with a through hole 714 on the plate body below the sand barrier side strip. The opening position of the through hole 714 is located directly below the hole pressing seat 713, and when the hole pressing seat 713 is pushed downward by the reciprocating electric hydraulic rod 712, the hole pressing seat 713 can press out a hole at the sand barrier side strip through the annular hole pressing tooth 715, and the pressed part in the hole of the sand barrier side strip can fall through the through hole 714 to ensure the formation of the hole.

[0054] Furthermore, a push plate 717 is movably arranged directly below the hole pressing seat 713, and a compression spring 716 is connected between the hole pressing seat 713 and the push plate 717, so that the push plate 717 is elastically connected to the hole pressing seat 713 through the action of the compression spring 716, and then during the hole pressing process, the push plate 717 can be pushed into the hole pressing seat 713. At this time, the compression spring 716 is in a compressed state, and the part of the sand barrier side strip that is pressed out also enters the hole pressing seat 713. When the hole pressing is completed, the elastic force of the compression spring 716 on the push plate 717 can push out the part of the sand barrier side strip that has entered the hole pressing seat 713, so that the push plate 717 returns to its initial state, which is convenient for the subsequent hole pressing action.

[0055] Furthermore, a conduit connecting rod 81 is connected to one end of the arc guide sleeve 8 close to the mesh belt hot-melt butt assembly 6, and the arc guide sleeve 8 is fixedly connected to the support back plate 1 through the conduit connecting rod 81. The setting of the conduit connecting rod 81 can ensure that the installation position of the arc guide sleeve 8 is fixed, and the connection position of the conduit connecting rod 81 does not affect the passage of the strip through the gap between the arc butt plate 7 and the outer tube wall of the arc guide sleeve 8, so as to ensure the smooth transportation of the strip.

[0056] Furthermore, the arc folding plate 9 includes a guide arc panel 91, a folding plate connecting rod 92 and a folding inclined panel 93. The folding plate connecting rod 92 and the folding inclined panel 93 are integrally connected to the two ends of the guide arc panel 91. The guide arc panel 91 is fixedly connected to the docking plate connecting rod 72 through the folding plate connecting rod 92. The folding inclined panel 93 of one arc folding plate 9 is located below the side strip on one side of the sand barrier, and the folding inclined panel 93 of the other arc folding plate 9 is located above the side strip on the other side of the sand barrier. When the sand barrier is transported and rolled up, the two side strips of the sand barrier can be folded in reverse by the two folding inclined panels 93, and then when the sand barrier is stretched and flattened up and down, the thickness of the sand barrier can be reduced to facilitate rolling up.

[0057] Working principle: first, the seed rope reel 2 is sleeved on the rope reel support rod 12, the mesh belt reel 3 is sleeved on the mesh belt reel rotating rod, and the strip reel 4 is sleeved on the strip reel rotating rod, and then the seed rope and the mesh belt are pulled to clamp the mesh belt on both sides of the seed rope, and the mesh belt is passed through the mesh belt hot-melt butt assembly 6. When the belt body of the mesh belt passes through the mesh belt hot-melt butt assembly 6, the mesh belt butt electric heating roller 62 can heat and hot-melt the belt body of the mesh belt, that is, the upper and lower mesh belt bodies can be fixedly connected, and then the fixed belt body is passed through the gap between the two arc guide sleeves 8, and at the same time, the strip is pulled to pass through the gap left between the arc folding plate 9 and the outer tube wall of the arc guide sleeve 8. The gap left between the two arc guide sleeves 8 can make the mesh belt clamped with the seed rope be transported from the gap between the two arc guide sleeves 8, and the strip reel 4 The conveyed strip can first pass through the gap between the arc-shaped docking plate 7 and the outer tube wall of the arc-surface guide sleeve 8, and then pass through the gap between the arc-surface folding plate 9 and the outer tube wall of the arc-surface guide sleeve 8, so that the strip body can be plasticized by the arc-surface tube body of the arc-surface guide sleeve 8, so that the upper and lower strips can be cylindrical on the tube body of the arc-surface guide sleeve 8, and when the side edge of the strip passes through the upper and lower docking clamping plates 73, the strip docking electric heating roller 74 can realize hot-melt pressing and fixing of the side edge of the strip, that is, the side edge of the strip and the side edge of the mesh belt can be hot-melted and combined together, and the docking edge strips on both sides of the produced seed rope biological sand barrier can be opened through the side hole pressing assembly 71, and the sand barrier belt winding rotating rod 14 is driven to rotate by the winding motor 16, and then the produced sand barrier is wound around the rod body of the sand barrier belt winding rotating rod 14;

[0058] When using the seed rope biological sand barrier, the sand barrier can be laid in a cross shape, that is, one of the sand barriers can be laid horizontally, and the other two sand barriers can be vertically laid on both sides. The holes opened on the side strips at the ends of the vertical sand barrier and the holes opened on one side strip of the horizontal sand barrier are combined together through connecting ropes to form a cross-shaped combined sand barrier, and as the produced sand barrier is continuously transported, the side strips on both sides of the sand barrier can be folded separately through the arc folding plate 9, which makes it easier to roll the sand barrier together.

[0059] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations falling within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

[0060] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. A cross-shaped seed rope biological sand barrier production device, comprising a support back plate (1), a seed rope fixing assembly and an outer jacket bag body docking assembly, characterized in that: The seed rope fixing assembly and the outer jacket bag body docking assembly are both connected to the supporting back plate (1), and the seed rope fixing assembly and the outer jacket bag body docking assembly are arranged in sequence along the conveying direction of the produced sand barrier; The seed rope fixing assembly comprises a seed rope reel (2), a mesh belt reel (3) and a mesh belt hot-melt butt assembly (6), wherein the mesh belt reel (3) is respectively arranged on the upper and lower sides of the seed rope reel (2), and the mesh belt transported by the mesh belt reel (3) passes through the mesh belt hot-melt butt assembly (6); The outer sleeve body docking assembly comprises a strip roll (4), an arc-shaped docking plate (7), an arc-shaped guide sleeve (8) and an arc-shaped folding plate (9), wherein the strip roll (4) is respectively arranged on the outside of the mesh belt roll (3), the arc-shaped guide sleeve (8) is symmetrically provided with two upper and lower parts, and a gap is left between the two arc-shaped guide sleeves (8), the arc-shaped docking plate (7) and the arc-shaped folding plate (9) are respectively located on the outside of the arc-shaped guide sleeve (8), and the connection position of the arc-shaped docking plate (7) is located on the arc-shaped guide sleeve (8) close to the mesh belt hot-melt docking assembly (6), and a gap is left between the arc-shaped docking plate (7) and the outer tube wall of the arc-shaped guide sleeve (8), the connection position of the arc-shaped folding plate (9) is located at the end of the arc-shaped guide sleeve (8) away from the mesh belt hot-melt docking assembly (6), and a gap is left between the arc-shaped folding plate (9) and the outer tube wall of the arc-shaped guide sleeve (8), and strip docking assemblies and side hole pressing assemblies (71) are arranged at both ends of the arc-shaped docking plate (7), and the strip docking assemblies and side hole pressing assemblies (71) are arranged in sequence along the conveying direction of the produced sand barrier; The strip butt joint assembly comprises a butt joint clamping plate (73) and a strip butt joint electric heating roller (74), wherein the butt joint clamping plate (73) is integrally connected to the two ends of the arc-shaped butt joint plate (7), and the strip butt joint electric heating roller (74) is embedded in the inner side panel body opposite to the butt joint clamping plate (73); The side hole pressing assembly (71) comprises a C-shaped hole pressing plate (711), a reciprocating electric hydraulic rod (712) and a hole pressing seat (713); the C-shaped hole pressing plate (711) is connected to one side of two upper and lower docking clamping plates (73); the reciprocating electric hydraulic rod (712) is vertically connected above the C-shaped hole pressing plate (711); the hole pressing seat (713) is located on the inner side of the C-shaped hole pressing plate (711); and the hole pressing seat (713) is fixedly connected to the movable end of the reciprocating electric hydraulic rod (712).

2. The cross-shaped seed rope biological sand barrier production equipment according to claim 1 is characterized by: The bottom end of the support back plate (1) is connected to a support bottom plate (11), the support back plate (1) and the support bottom plate (11) are vertically butt-jointed, the upper plate surface of the support bottom plate (11) is vertically connected to a rope roll support rod (12), the connection position of the rope roll support rod (12) is located at the front end in the production and transportation direction of the sand barrier, and a rope roll support plate (13) is fixedly sleeved on the rod body of the rope roll support rod (12).

3. The cross-shaped seed rope biological sand barrier production equipment according to claim 2 is characterized by: The upper plate surface of the support base plate (11) is also vertically connected to a sand barrier belt reeling rotating rod (14); the connection position of the sand barrier belt reeling rotating rod (14) is located at the end of the sand barrier production and transportation direction; a sand barrier belt support plate (15) is fixedly sleeved on the rod body of the sand barrier belt reeling rotating rod (14); the lower plate surface of the support base plate (11) is fixedly connected to a reeling motor (16); the rotating shaft of the reeling motor (16) is coaxially fixedly connected to the sand barrier belt reeling rotating rod (14).

4. The cross-shaped seed rope biological sand barrier production equipment according to claim 1 is characterized by: A mesh belt reel (3) is sleeved with a mesh belt revolving rod (31) at the center thereof, and the mesh belt revolving rod (31) is vertically rotatably connected to the supporting back plate (1); a strip reel (4) is sleeved with a strip revolving rod (41) at the center thereof, and the strip reel (41) is vertically rotatably connected to the supporting back plate (1); the upper and lower sides of the mesh belt conveyed by the mesh belt reel (3) and the upper and lower sides of the strip belt conveyed by the strip reel (4) are both clamped with a guide clamping rod (5), and the guide clamping rod (5) is vertically rotatably connected to the supporting back plate (1).

5. The cross-shaped seed rope biological sand barrier production equipment according to claim 1 is characterized by: The mesh belt hot-melt butt-jointing assembly (6) comprises a butt-jointing shell (61), a mesh belt butt-jointing electric heating roller (62), a positioning connecting rod (63) and a rotating rod (64) which are arranged in an upper and lower distributed manner. The mesh belt butt-jointing electric heating roller (62) and the rotating rod (64) are both arranged in the butt-jointing shell (61). The mesh belt butt-jointing electric heating roller (62) is coaxially sleeved on the rod body of the rotating rod (64). The mesh belt butt-jointing electric heating roller (62) is electrically connected to an external power supply. Both ends of the rotating rod (64) are rotatably connected to the butt-jointing shell (61). One end of the butt-jointing shell (61) close to the supporting back plate (1) is fixedly connected to the positioning connecting rod (63), and the butt-jointing shell (61) is vertically fixedly connected to the supporting back plate (1) via the positioning connecting rod (63).

6. The cross-shaped seed rope biological sand barrier production equipment according to claim 1 is characterized by: A docking plate connecting rod (72) is connected to the middle part of the body of the arc-shaped docking plate (7), and the arc-shaped docking plate (7) is fixedly connected to the supporting back plate (1) via the docking plate connecting rod (72). A plurality of strip docking electric heating rollers (74) are arranged on the docking clamping plate (73), and a roller connecting shaft (75) is coaxially sleeved on the strip docking electric heating rollers (74). The roller connecting shaft (75) is rotatably connected in the body of the docking clamping plate (73).

7. The cross-shaped seed rope biological sand barrier production equipment according to claim 6 is characterized by: The C-shaped hole pressing plate (711) of the side hole pressing assembly (71) is clamped on the outside of the sand barrier side strip, and the hole pressing seat (713) is located above the sand barrier side strip. The bottom edge of the hole pressing seat (713) is integrally connected with an annular hole pressing tooth (715). The C-shaped hole pressing plate (711) is provided with a through hole (714) on the plate body located below the sand barrier side strip, and the opening position of the through hole (714) is located directly below the hole pressing seat (713).

8. The cross-shaped seed rope biological sand barrier production equipment according to claim 7 is characterized by: A push plate (717) is movably disposed directly below the hole pressing seat (713), and a compression spring (716) is connected between the hole pressing seat (713) and the push plate (717).

9. The cross-shaped seed rope biological sand barrier production equipment according to claim 8, characterized in that: One end of the arc surface guide sleeve (8) close to the mesh belt hot-melt butt assembly (6) is connected to a conduit connecting rod (81), and the arc surface guide sleeve (8) is fixedly connected to the support back plate (1) via the conduit connecting rod (81).

10. The cross-shaped seed rope biological sand barrier production equipment according to claim 9, characterized in that: The arc-surface folding plate (9) comprises a guide arc panel (91), a folding plate connecting rod (92) and a folding inclined panel (93); the folding plate connecting rod (92) and the folding inclined panel (93) are both integrally connected to the two ends of the guide arc panel (91); the guide arc panel (91) is fixedly connected to the docking plate connecting rod (72) via the folding plate connecting rod (92); the folding inclined panel (93) of one of the arc-surface folding plates (9) is located below the side strip on one side of the sand barrier, and the folding inclined panel (93) of the other arc-surface folding plate (9) is located above the side strip on the other side of the sand barrier.

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