CN114536790A - Production process and original opening correction process of spiral mesh - Google Patents

Production process and original opening correction process of spiral mesh Download PDF

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Publication number
CN114536790A
CN114536790A CN202210240316.2A CN202210240316A CN114536790A CN 114536790 A CN114536790 A CN 114536790A CN 202210240316 A CN202210240316 A CN 202210240316A CN 114536790 A CN114536790 A CN 114536790A
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China
Prior art keywords
spiral
mesh
spiral mesh
splicing
belt
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CN202210240316.2A
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Chinese (zh)
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CN114536790B (en
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李坤朋
崔珊珊
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Individual
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    • BPERFORMING OPERATIONS; TRANSPORTING
    • B29WORKING OF PLASTICS; WORKING OF SUBSTANCES IN A PLASTIC STATE IN GENERAL
    • B29CSHAPING OR JOINING OF PLASTICS; SHAPING OF MATERIAL IN A PLASTIC STATE, NOT OTHERWISE PROVIDED FOR; AFTER-TREATMENT OF THE SHAPED PRODUCTS, e.g. REPAIRING
    • B29C65/00Joining or sealing of preformed parts, e.g. welding of plastics materials; Apparatus therefor
    • B29C65/56Joining or sealing of preformed parts, e.g. welding of plastics materials; Apparatus therefor using mechanical means or mechanical connections, e.g. form-fits
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B29WORKING OF PLASTICS; WORKING OF SUBSTANCES IN A PLASTIC STATE IN GENERAL
    • B29CSHAPING OR JOINING OF PLASTICS; SHAPING OF MATERIAL IN A PLASTIC STATE, NOT OTHERWISE PROVIDED FOR; AFTER-TREATMENT OF THE SHAPED PRODUCTS, e.g. REPAIRING
    • B29C65/00Joining or sealing of preformed parts, e.g. welding of plastics materials; Apparatus therefor
    • B29C65/74Joining or sealing of preformed parts, e.g. welding of plastics materials; Apparatus therefor by welding and severing, or by joining and severing, the severing being performed in the area to be joined, next to the area to be joined, in the joint area or next to the joint area
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B29WORKING OF PLASTICS; WORKING OF SUBSTANCES IN A PLASTIC STATE IN GENERAL
    • B29CSHAPING OR JOINING OF PLASTICS; SHAPING OF MATERIAL IN A PLASTIC STATE, NOT OTHERWISE PROVIDED FOR; AFTER-TREATMENT OF THE SHAPED PRODUCTS, e.g. REPAIRING
    • B29C66/00General aspects of processes or apparatus for joining preformed parts
    • B29C66/01General aspects dealing with the joint area or with the area to be joined
    • B29C66/02Preparation of the material, in the area to be joined, prior to joining or welding
    • B29C66/022Mechanical pre-treatments, e.g. reshaping
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B29WORKING OF PLASTICS; WORKING OF SUBSTANCES IN A PLASTIC STATE IN GENERAL
    • B29CSHAPING OR JOINING OF PLASTICS; SHAPING OF MATERIAL IN A PLASTIC STATE, NOT OTHERWISE PROVIDED FOR; AFTER-TREATMENT OF THE SHAPED PRODUCTS, e.g. REPAIRING
    • B29C66/00General aspects of processes or apparatus for joining preformed parts
    • B29C66/01General aspects dealing with the joint area or with the area to be joined
    • B29C66/03After-treatments in the joint area
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B29WORKING OF PLASTICS; WORKING OF SUBSTANCES IN A PLASTIC STATE IN GENERAL
    • B29CSHAPING OR JOINING OF PLASTICS; SHAPING OF MATERIAL IN A PLASTIC STATE, NOT OTHERWISE PROVIDED FOR; AFTER-TREATMENT OF THE SHAPED PRODUCTS, e.g. REPAIRING
    • B29C66/00General aspects of processes or apparatus for joining preformed parts
    • B29C66/01General aspects dealing with the joint area or with the area to be joined
    • B29C66/03After-treatments in the joint area
    • B29C66/032Mechanical after-treatments
    • B29C66/0326Cutting, e.g. by using waterjets, or perforating
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B29WORKING OF PLASTICS; WORKING OF SUBSTANCES IN A PLASTIC STATE IN GENERAL
    • B29CSHAPING OR JOINING OF PLASTICS; SHAPING OF MATERIAL IN A PLASTIC STATE, NOT OTHERWISE PROVIDED FOR; AFTER-TREATMENT OF THE SHAPED PRODUCTS, e.g. REPAIRING
    • B29C66/00General aspects of processes or apparatus for joining preformed parts
    • B29C66/69General aspects of joining filaments 
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B29WORKING OF PLASTICS; WORKING OF SUBSTANCES IN A PLASTIC STATE IN GENERAL
    • B29LINDEXING SCHEME ASSOCIATED WITH SUBCLASS B29C, RELATING TO PARTICULAR ARTICLES
    • B29L2028/00Nets or the like

Abstract

The invention relates to a production process of a spiral mesh and a primary opening correction process, wherein the primary opening correction process comprises the following steps: step A: disassembling: disassembling the spiral net piece B into a part A and a part B; and B: turning: turning the part A and the part B respectively to enable the outer ends of the part A and the part B to be close to each other; step c: splicing: splicing the reversed part A and the reversed part B into a spiral mesh C, and ensuring no double rings in the splicing process; and in the spiral mesh B and the spiral mesh C, the spiral directions of adjacent spiral wires are opposite. According to the invention, the spiral mesh prepared after the original opening correction is carried out in the production process of the spiral mesh, the original opening splicing operation is simple and easy to implement, and even if non-professional personnel do not adopt non-professional tools, the original opening splicing can be ensured to have no double rings and no bulges.

Description

Production process and original opening correction process of spiral mesh
Technical Field
The invention belongs to the technical field of spiral mesh belt production, and particularly relates to a production process and a primary opening correction process of a spiral mesh sheet.
Background
The spiral net sheet is generally prepared from polyester plastics, and is widely applied to conveying and filtering equipment and used as a conveying belt or a filtering material; when in use, the original openings at the two ends of the spiral mesh are spliced by a buyer of the spiral mesh to form a ring-shaped structure shown in figure 4 for use; the existing production process of the spiral mesh generally comprises the following steps: step 1, preparing polyester monofilaments into spiral wires, step 2, splicing the spiral wires into spiral mesh belts by adopting the monofilaments, step 3, heating and shaping the spiral mesh belts, step 4, threading filling wires, step 5, ironing and vulcanizing edges, step 6, disassembling the spiral mesh belts subjected to the ironing and vulcanizing into spiral meshes with specified dimensions, and step 7, sealing edges of the side edges of the spiral meshes in the width direction with glue, and packaging; the problems of the process are as follows: in the process of stretching the spiral mesh sheet by heating and shaping, the side edges are inclined frequently, so that errors are generated in the shape and size of the spiral mesh sheet, and the width of original openings at two ends of the prepared spiral mesh sheet cannot be guaranteed to be consistent, and for the reasons, when purchasers perform original opening splicing, the spiral mesh sheet is spliced into an annular spiral mesh belt by adopting monofilaments D27, if the original opening splicing is guaranteed to have no double rings, the bulging phenomenon is inevitably generated, so that the problem that the annular spiral mesh belt is seriously deviated in the use process cannot be corrected; if the bulge is not generated, the part of double rings can be allowed to form only in the original splicing process, the double ring structure is shown in figure 1, so that small holes can be generated around the double rings, the quality of the spiral mesh belt is reduced, the spiral mesh belt can be used at any time for some customers with low requirements, but for foreign users, the spiral mesh belt with more double rings is hardly accepted, and the sales volume and the sales unit price of the spiral mesh belt are seriously influenced.
Therefore, the problem of double rings or bulges generated when the purchaser performs original splicing of the spiral mesh is solved, and the spiral mesh has a vital effect on improving the quality and the selling price of the spiral mesh.
Disclosure of Invention
The invention aims to overcome the defects in the prior art and provides a spiral mesh production process and a primary opening correction process.
In order to achieve the purpose, the technical scheme adopted by the invention is as follows:
the technical scheme I is as follows:
a primary opening correction process for a spiral mesh comprises the following steps:
step a, disassembling: disassembling the spiral net piece B into a part A and a part B;
step b, turning over: turning the part A and the part B, and enabling the outer ends and the inner ends of the part A and the part B to be interchanged;
step c, splicing: c, splicing the reversed part A and the reversed part B into a spiral mesh C, and ensuring no double rings in the splicing process in the step C;
and in the spiral mesh B and the spiral mesh C, the spiral directions of adjacent spiral wires are opposite.
Further, after the splicing in the step C, the spiral mesh C is heated and shaped, and bulges are removed.
Furthermore, when the spiral mesh sheets C are heated and shaped, the spiral mesh sheets C need to be spliced into the spiral mesh belts C, and then the spiral mesh belts C are heated and shaped.
Furthermore, in the length direction, 1-5 spiral threads are reserved at two ends of the spiral net piece B compared with the specified size, and the reserved 1-5 spiral threads are reserved spiral threads;
after the spiral mesh is heated, shaped and bulges are removed, the reserved spiral wires are also required to be disassembled and removed.
Further, the spiral mesh sheet B in the step a is obtained by disassembling the spiral mesh sheet B, and before disassembling the spiral mesh sheet B, the spiral mesh sheet B is required to be subjected to bevel edge correction, which includes:
step a', disassembling: disassembling the spiral mesh belt A into a plurality of spiral mesh sheets A, and keeping the plurality of spiral mesh sheets A arranged in sequence and unchanged in sequence;
step b', overturning and splicing: and d, sequentially overturning the spiral meshes A at intervals to enable the inclined directions of the inclined edges of the adjacent spiral meshes A to be opposite, sequentially splicing the spiral meshes A to form a spiral mesh belt B, and ensuring that no double rings exist in the splicing process of the step B'.
The second technical scheme is as follows:
a process for producing a spiral web, comprising:
step 1, splicing into a belt: a plurality of spiral wires with opposite spiral directions are sequentially and alternately spliced into a spiral mesh belt A; the spiral directions of adjacent spiral wires of the spiral mesh belt A are opposite; in the splicing process of the step 1, no double rings are ensured when ring structures are alternately spliced;
step 2, bevel edge correction: performing bevel edge correction on the side edge of the spiral mesh belt A to form a spiral mesh belt B, wherein the spiral directions of adjacent spiral wires of the spiral mesh belt A are opposite;
step 3, heating and shaping: heating and shaping the spiral mesh belt B until the elongation rate reaches 20-25%;
step 4, disassembling: disassembling the spiral mesh belt B into a plurality of spiral mesh sheets B, wherein reserved spiral wires are arranged at two ends of each spiral mesh sheet B in the length direction;
step 5, primary correction: performing original correction on the traditional original position of the spiral mesh B by adopting the original correction process as claimed in claim 1 to form a spiral mesh C; after correction, the position of the traditional original opening corresponds to the position of the monofilament B on the spiral net piece C;
step 6, splicing: splicing the spiral net sheets C into a spiral net belt C; step 6, double rings can exist in the splicing process, but no bulge is ensured;
step 7, heating and shaping: heating and shaping the spiral mesh belt C, and removing bulges;
step 8, threading filling yarns: inserting filling wires into the central ring of the spiral wires used by the spiral mesh belt C;
step 9, heating and shaping: heating and shaping the spiral mesh belt C penetrated with the filling wire, and ironing the filling wire;
step 10, disassembling: the spiral mesh sheet C penetrated with the filling wires is disassembled again from the connecting position of the adjacent spiral mesh sheets C to form the spiral mesh sheet C penetrated with the filling wires, then the reserved spiral wires in the length direction of the spiral mesh sheet C penetrated with the filling wires are disassembled and removed, and the redundant parts of the side monofilaments and the filling wires are cut off to form the spiral mesh sheet D with the specified size;
step 11, edge sealing glue treatment: performing edge sealing glue treatment on the side edge of the spiral mesh D in the width direction to obtain a spiral mesh product;
wherein, all splice in-process, all guarantee that the spiral direction of adjacent spiral silk is opposite.
Further, the heating and shaping in the step 3 adopt a heating and shaping mode of alternately carrying out heating and natural cooling, and the temperature adopted during heating is 50-150 ℃;
7, heating and shaping at 60-120 ℃ for 30s-3 min;
and 9, heating and setting at 60-120 ℃ for 30s-3 min.
Further, the method for processing the edge sealing adhesive in step 11 includes:
step 11-1, sequentially connecting adjacent spiral meshes D to form a belt-shaped structure, and attaching adhesive tapes to the joints of the adjacent spiral meshes D;
step 11-2, aligning the glue brush to the side edge of the belt-shaped structure, and enabling the belt-shaped structure to move forwards along with glue discharging of the glue spreader, so that the glue is brushed on the side edge of the belt-shaped structure;
and 11-3, after the side edge is brushed with the adhesive, removing the adhesive tape, and detaching and connecting the adjacent spiral meshes D to obtain the spiral mesh product.
Furthermore, the connection of the adjacent spiral meshes D adopts an intermittent connection method;
the intermittent connection method comprises the following steps: and arranging 10-15cm first connecting positions at two side edges of adjacent spiral net pieces D, and arranging 4-6cm second connecting positions at intervals of 10-15cm between the two first connecting positions.
Furthermore, the connection method of the first connection bit is as follows: alternately inserting the ring structures positioned at the first connecting positions in the adjacent spiral net sheets D, and then penetrating connecting lines in the side rings, wherein the connecting lines penetrate through all the corresponding side rings at the first connecting positions;
the connection method of the second connection position comprises the following steps: and (4) only alternately inserting the ring structures at the second connecting position in the adjacent spiral net piece D.
Compared with the prior art, the invention has the beneficial effects that:
1. the invention breaks through the traditional thinking of the prior art, adjusts the prior art, adds the original mouth correction procedure before threading the filling wire, shifts the traditional original mouth positions at two ends of the spiral net piece in the middle of the spiral net piece through the original mouth correction (the two ends of the spiral net piece B in the prior art are the original mouths and become the traditional original mouth positions, the spiral net piece C formed after the original mouth correction, the traditional original mouth positions are shifted in the middle of the spiral net piece C and are called as the original mouth correction), and the new original mouths are formed at two ends of the spiral net piece after the original mouth correction, because the new original mouths are formed by disassembling the spiral wires close to each other on the spiral net piece B, the sizes are extremely close and almost the errors are avoided, and the purchaser can not generate the bulging phenomenon even if a double ring is not formed in the splicing process; therefore, in the technology, after the original mouth correction procedure, the traditional original mouth splicing with a far position and a large error is carried out by a purchaser in the traditional technology, and is improved to be carried out by a production side, the new original splicing with similar position and almost no error is reserved for the buyer, the difficulty of the original splicing of the buyer is reduced, the quality of the original splicing of the buyer is improved, no double rings and no bulge are ensured when the original splicing of the buyer is carried out, when the traditional original splicing with a longer position and larger error is carried out by a production party, only double rings are ensured to be absent in the splicing process, and the bulge generated by the process can be removed by subsequent secondary heating and shaping, so that the process can ensure that the produced spiral net sheet has no double rings and bulge and the surface is smooth even if the splicing operation of the spiral wire is carried out at the traditional original position.
2. When the original opening is corrected, a plurality of spiral threads are reserved at two ends of the spiral net piece in the length direction, and the reserved spiral threads are disassembled and removed after the operation of ironing and filling the threads, so that a new original opening generated on a final product is ensured, and the structure is regular and does not deform; therefore, the reserved spiral wire can protect the original opening part of the final product and avoid deformation during heating and shaping operation after original opening correction, (in the heating and shaping operation after original opening correction, the reserved spiral wire protects the spiral wire on the inner side of the reserved spiral wire from deformation and only the reserved spiral wire deforms), and thus, after the reserved spiral wire is disassembled and removed, a new original opening which is not deformed can be obtained, so that the difficulty of original opening splicing of a purchaser is reduced, the quality of original opening splicing of the purchaser is improved, and no double-ring bulge is generated during original opening splicing of the purchaser.
3. The invention carries out side correction before the original correction, and can improve the regularity of the spiral net piece and avoid the influence on use caused by the formation of the spiral net piece in a parallelogram shape through the side correction.
4. According to the invention, the spiral net pieces are spliced into a belt shape during edge sealing glue, the edge sealing glue can be realized in the advancing process of the belt-shaped structure, and compared with the single spiral net piece independent edge sealing glue, the working efficiency is improved.
5. When the spiral net pieces are connected into a belt shape before edge sealing glue, compared with the traditional splicing process, the intermittent connection mode is adopted, so that the edge sealing glue operation of the spiral net pieces is not influenced, the connection process is simplified, and the working efficiency is improved.
Description of the drawings:
FIG. 1 is a schematic diagram of a dual ring of the prior art;
FIG. 2 is a schematic structural view of a spiral mesh product in accordance with an embodiment of the present invention;
FIG. 3 is a schematic representation of another angled construction of a spiral mesh product in accordance with an embodiment of the present invention (glue not shown);
FIG. 4 is a diagram illustrating the use of a spiral mesh product in accordance with one embodiment of the present invention;
FIG. 5 is a schematic diagram of the structure of a spiral wire in one embodiment of the present invention;
FIG. 6 is a schematic diagram illustrating the operation of the bevel edge correction step in one embodiment of the present invention;
FIG. 7 is an enlarged view taken at A of FIG. 6;
FIG. 8 is a schematic diagram illustrating the operation of the origin correcting step in one embodiment of the present invention;
FIG. 9 is a schematic view of the construction of a spiral belt C according to an embodiment of the present invention;
FIG. 10 is a perspective view of a spiral mesh D in accordance with an embodiment of the present invention;
FIG. 11 is a schematic structural view of a ribbon structure in accordance with an embodiment of the present invention;
FIG. 12 is a schematic diagram illustrating the operation of an edge sealing adhesive process according to an embodiment of the present invention;
in the figure: 1. spiral filament, 2, ring structure, 3, side ring, 4, center ring, 5, monofilament, 6, monofilament A, 7, monofilament B, 8, monofilament C, 9, filling filament, 10 and sizing material; 11. a spiral mesh belt A; 12. spiral meshes A, 13, spiral mesh belts B, 14, spiral meshes B, 15, A, 16, B, 17, spiral meshes C, 18, specified size, 19, reserved spiral wires, 20, spiral mesh belts C, 21, spiral meshes D, 22, a belt-shaped structure, 23, a first connecting position, 24, a second connecting position, 25, a connecting line, 26, a glue spreader, 27, monofilaments D, 28 and a spiral mesh product; 29. and (5) carrying out new and original mouth making.
Detailed Description
The technical solutions of the present invention will be described clearly and completely with reference to specific embodiments, and it should be understood that the described embodiments are a part of the embodiments of the present invention, and not all of the embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.
In the present invention, as shown in fig. 1, the double loop means that when the loop structures of two adjacent spiral wires are inserted, 2 loop structures of another spiral wire are juxtaposed between 2 adjacent loop structures of one spiral wire.
In the present invention, in the case of the present invention,
example 1:
a splicing method comprises the following operation steps: the ring structures 2 of the 2 spiral wires 1 to be spliced are alternately spliced to form a central ring and a side ring, and then the monofilaments 5 penetrate through the ring structures to realize the connection of the 2 spiral wires, wherein the spiral directions of the 2 spiral wires to be spliced are opposite.
Example 2
A dismantling method comprising the following operating steps: drawing out the monofilaments connecting the adjacent 2 spiral wires, and separating the ring structures which are alternately arranged towards two sides;
example 3:
a process for producing a spiral net product comprises
Step 0, manufacturing spiral yarns: preparing a polyester monofilament into a spiral filament 1 as shown in fig. 5 by using a spiral machine (fig. 5 of the embodiment only shows a spiral filament with one spiral direction, and on the basis of the spiral filament with one spiral direction, the structure of the spiral filament with the opposite direction is known by the person skilled in the art, so that the spiral filament with the other spiral direction is not shown in the embodiment);
step 1, splicing into a belt: splicing a plurality of spiral wires 1 with opposite spiral directions into a spiral mesh belt A11;
sequentially and alternately splicing a plurality of spiral wires with opposite spiral directions into a spiral mesh belt A11, wherein the spiral directions of adjacent spiral wires of the spiral mesh belt A11 are opposite as shown in figure 7; the splicing in the step 1 adopts the splicing method described in the embodiment 1;
in the splicing process of the step 1, no double rings are ensured when ring structures are alternately spliced;
after the spiral mesh belt A is spliced, as shown in FIG. 6, the side edge of the spiral mesh belt A tends to incline;
step 2, bevel edge correction: as shown in fig. 6, the side edges of the spiral mesh belt a11 were subjected to diagonal edge correction to form a spiral mesh belt B13;
step 2-1, disassembling: disassembling the spiral mesh belt A11 into a spiral mesh sheet A12;
disassembling the spiral mesh belt A11 into a plurality of spiral meshes A12, wherein a plurality of spiral meshes A12 are arranged in sequence and keep the sequence unchanged; during disassembly, when the disassembly position is selected, the spiral directions of the spiral wires at the two ends of each spiral net piece A are ensured to be the same, and the spiral directions of the spiral wires at the end parts of the adjacent spiral net pieces A are ensured to be opposite; 2-1, adopting the disassembling method of the embodiment 2;
step 2-2, overturning and splicing: sequentially overturning the spiral net pieces A12 at intervals to enable the oblique directions of the oblique edges of the adjacent spiral net pieces A12 to be opposite, and then sequentially splicing the spiral net pieces A into a spiral net belt B13; 2-2, the splicing method of the embodiment 1 is adopted, and no double rings are ensured in the splicing process of the step 2-2;
the step of splicing again still adopts single-wire splicing, and the single wire used for splicing the spiral net piece A into the spiral net belt B is set as the single wire A6;
sequentially overturning the disassembled spiral meshes A11 at intervals refers to overturning all odd-numbered spiral meshes A or overturning all even-numbered spiral meshes A; the inclination angle of the side edge of the turned spiral mesh A is changed, so that the inclination directions of the turned spiral mesh A and the non-turned spiral mesh A are opposite, and the turning of the spiral mesh A adopts an interval turning mode, so that after the turned spiral mesh A and the non-turned spiral mesh A are alternately spliced again, a spiral mesh belt B13 with wavy side edges can be formed, and the inclination degree of the side edge of the spiral mesh belt A is corrected;
step 3, heating and shaping: heating and shaping the spiral mesh belt B13;
heating and shaping the spiral mesh belt B13 at the temperature of 130 ℃ by using a shaping machine until the elongation of the spiral mesh belt B13 reaches 25%, cooling to room temperature, and then carrying out subsequent operation;
step 4, disassembling: disassembling the spiral mesh belt B13 into a spiral mesh sheet B14;
during disassembly, the spiral directions of spiral wires at two ends of the spiral net piece B14 are ensured to be opposite;
disassembling the spiral mesh belt B into a plurality of spiral meshes B, and reserving two ends of the spiral meshes B14 in a length direction in a way of being larger than a specified size to form reserved spiral wires 19; the number of the reserved spiral threads at each end is 1-5 (1 spiral thread is reserved on each side in the embodiment); step 4, the disassembling method adopted in the disassembling process of the embodiment 2;
step 5, primary correction: as shown in fig. 8, the traditional primary position of the disassembled spiral mesh sheet B14 is corrected; forming a spiral mesh C; after correction, the position of the traditional original opening corresponds to the position of the spiral net piece C and the monofilament B;
after purchasing the spiral mesh product, the purchaser needs to splice the spiral mesh product into a ring for use; therefore, the ring structure of the spiral wire at both ends of the spiral mesh used by the purchaser is generally considered as the original opening.
In traditional spiral mesh sheet production technology, spiral mesh sheet B has already carried out the heat setting before disassembling, the operation of wearing the flat silk and the operation of ironing flat silk, spiral mesh sheet B disassembles into spiral mesh sheet B after, only need carry out the banding glue can, spiral mesh sheet B also need not reserve, consequently, in the conventional art, the loop structure of spiral silk at spiral mesh sheet B both ends promptly leaves the original mouth that the buyer carries out the concatenation for, the loop structure of spiral silk at spiral mesh sheet B both ends corresponds with the original mouth in the conventional art, consequently, here, the original mouth position in the conventional art is called as spiral mesh sheet B both ends, for short for traditional original mouth position.
Step 5-1, disassembling: disassembling the spiral mesh sheet B14 into a part A15 and a part B16;
when the spiral net piece B14 is disassembled into the part A15 and the part B16, the spiral net piece B is disassembled from any position, but after the disassembly is required to be ensured, the spiral directions of the spiral wires at two ends of the part A are consistent, the spiral directions of the spiral wires at two ends of the part B are consistent, and the spiral direction of the spiral wire at the end part of the part A is opposite to the spiral direction of the spiral wire at the end part of the part B.
Step 5-2, turning:
respectively overturning the part A14 and the part B15 in a positive and negative way, so that the positions of the outer ends and the inner ends of the part A and the part B are interchanged, and after overturning, the original outer ends of the part A and the part B are positioned at the inner sides to form new inner ends, so that the original outer ends of the part A and the part B are adjacent to each other in position, and the original inner ends of the part A and the part B are positioned at the outer sides to form new outer ends; (that is, both ends of the spiral mesh B in the longitudinal direction are turned over and then are immediately adjacent);
step 5-3, splicing;
splicing the turned part A14 and the turned part B15 again by using monofilaments 5 to form a spiral net piece C17; thereby shifting the traditional original opening positions at the two ends of the spiral mesh belt B to the middle part of the spiral mesh sheet C; the splicing in the step 5-3 adopts the splicing method in the embodiment 1, and the splicing in the step 5-3 ensures that no double rings exist when the ring structures are alternately spliced, so that the spliced spiral mesh belt C can generate bulges certainly due to the absence of the double rings;
in the embodiment, the monofilaments used for the part a and the part B are defined as the monofilaments B7, and the position of the monofilament B7 on the spiral mesh C corresponds to the traditional original position of the spiral mesh B, so that the position corresponding to the monofilament B7 on the spiral mesh C is also defined as the traditional original position;
the two ends of the spiral net piece C17 form a new original opening 29 after the reserved spiral wire 19 is removed in the subsequent process; because the two ends of the spiral mesh C17 are obtained by disassembling two adjacent spiral wires on the spiral mesh B, even if the reserved spiral wires 19 are disassembled to form new original openings 29, the new original openings 29 at the two ends are also obtained by disassembling two spiral wires with similar positions on the spiral mesh B14, and therefore, even if no professional tool is provided, no professional operator is provided, the buyer can easily realize the splicing of the new original openings at the two sides without generating double rings and bulges; at this time, the traditional original opening positions at the two ends of the spiral mesh piece B are shifted to the middle part of the spiral mesh piece C, namely the position of the monofilament B7, by the spiral mesh piece C obtained after splicing; thereby realizing the correction of the original position;
step 6, splicing: splicing the spiral net sheets C17 into a spiral net belt C20;
sequentially splicing a plurality of spiral meshes C17 by adopting monofilaments to form a spiral mesh belt C20 shown in figure 9, and naming the monofilaments connecting adjacent spiral meshes C17 as the monofilaments C8;
the splicing in the step 6 adopts the splicing method described in the embodiment 1; in the splicing in the step 6, when the ring structures are spliced, double rings can be arranged, but bulges cannot be arranged; because the spiral wire is reserved in the length direction of the spiral net piece B or the spiral net piece C, the length size of the spiral net piece B or the spiral net piece C is larger than the specified size, and the connecting part in the step 6 can be disassembled and removed in the subsequent process, so that even if double rings are formed in the splicing process in the step 6, the double rings can be disassembled and removed in the subsequent process, and the final product cannot be influenced.
Step 7, heating and shaping: heating and shaping the spiral mesh belt C20, and removing bulges;
heating and shaping the spiral mesh belt C20 by using a shaping machine, and removing bulges; 7, heating and setting at 90 ℃ for 30 s;
step 8, threading filling yarns: the filling wire 9 is inserted into the central ring 4 of the spiral wire used by the spiral mesh belt C20;
the filler wire 9 runs through all the loop structures 2 of a single spiral wire; the filling wire 9 is one or more of flat wire or round wire; 1 or more filling wires 9 can be threaded into each spiral wire.
Step 9, heating and shaping: heating and shaping the spiral mesh belt C20 penetrated with the filling wire, and ironing the filling wire;
heating and shaping the spiral mesh belt C20 penetrated with the filling wire by using a shaping machine, and ironing the filling wire; 7, heating and setting at 80 ℃ for 30 s;
step 10, disassembling: the spiral mesh sheet C20 threaded with the filling wires is again disassembled from the connecting position of the adjacent spiral mesh sheets C17 to form the spiral mesh sheet C17 threaded with the filling wires, then the reserved spiral wires 19 in the length direction of the spiral mesh sheet C threaded with the filling wires are disassembled and removed, and the monofilaments on the side edges and the redundant parts of the filling wires are cut off to manufacture the spiral mesh sheet D21 with the specified size as shown in fig. 10.
The connecting position of the adjacent spiral net piece C17, namely the position corresponding to the monofilament C8, therefore, when the spiral net piece C17 penetrated with the filling wire 9 is disassembled, the monofilament C8 is only required to be pulled out, and the spiral net piece C17 filled with the filling wire can be formed; the two ends of the spiral mesh C are reserved with the size of 1-5 spiral wires, so that after the spiral mesh C filled with filling wires is formed, the reserved spiral wires 19 are disassembled, and the monofilaments 5 and the filling wires 9 extending out of the side edges are cut off, so that the spiral mesh D21 with the specified size can be formed;
in this embodiment, after the heating and shaping in step 9, the ring structures of the reserved spiral wires at the two ends of the spiral mesh C are deformed, but the size of the spiral mesh C is reserved in the length direction, at this time, only the spiral wires reserved at the two ends of the spiral mesh C need to be disassembled and removed, and the undeformed ring structures can be exposed, i.e., new original openings, for the purchaser to splice the spiral meshes into rings, and the original openings formed at the two ends of the spiral mesh D are obtained by disassembling spiral wires close to each other on the spiral mesh B, so that the spiral mesh C has a regular shape and a very small size error, and even if no professional operating tool or professional operator exists, no double rings and no bulge can be realized in the splicing process.
Step 11, edge sealing glue treatment: and (3) performing edge sealing glue treatment on the side edge of the spiral mesh D21.
The method for processing the edge sealing glue comprises the following steps:
step 11-1, sequentially connecting the adjacent spiral meshes D21 to form a belt-shaped structure 22 shown in FIG. 11, and attaching an adhesive tape to the joint of the adjacent spiral meshes D21;
in this embodiment, the connection of the adjacent spiral mesh sheets D adopts an intermittent connection method;
the intermittent connection method comprises the following steps: arranging 10-15cm first connecting positions 11 at two side edges of adjacent spiral net pieces D21, and arranging 4-6cm second connecting positions 12 at intervals of 10-15cm between the two first connecting positions 11;
the connection method of the first connection bit 23 is as follows: alternately inserting the ring structures positioned at the first connecting positions 23 in the adjacent spiral meshes D21, and then penetrating connecting lines in the side rings, wherein the connecting lines 25 penetrate through all the corresponding side rings at the first connecting positions 23;
the connection method of the second connection bit 24 is as follows: and alternately splicing the ring structures at the second connecting position 24 in the adjacent spiral net pieces D21.
Step 11-2, aligning the glue brush to the side edge of the belt-like structure 22, as shown in fig. 12, with the glue discharged from the glue applicator 26, the belt-like structure advances forward, thereby brushing the glue 10 at the side edge of the belt-like structure;
and 11-3, after the side edge glue brushing is finished, removing the adhesive tape, and removing the connecting line 25 connecting the adjacent spiral meshes D, so as to obtain the spiral mesh product 28 shown in the figure 2-3.
And step 12, packaging.
The spiral mesh product prepared by the method of the embodiment has no double rings or bulges.
The embodiments described above are only preferred embodiments of the invention and are not exhaustive of the possible implementations of the invention. Any obvious modifications to the above would be obvious to those of ordinary skill in the art, but would not bring the invention so modified beyond the spirit and scope of the present invention.

Claims (10)

1. A primary opening correction process of a spiral mesh is characterized by comprising the following steps:
step a, disassembling: disassembling the spiral net piece B into a part A and a part B;
step b, turning over: turning the part A and the part B, and exchanging the positions of the outer side end and the inner side end of the part A and the part B;
step c, splicing: c, splicing the reversed part A and the reversed part B into a spiral mesh C, and ensuring no double rings in the splicing process in the step C;
and in the spiral mesh B and the spiral mesh C, the spiral directions of adjacent spiral wires are opposite.
2. The primary correction process for a spiral mesh sheet according to claim 1, wherein after the splicing in step C, the spiral mesh sheet C is heated and shaped to remove bulges.
3. The primary correction process for a spiral mesh sheet according to claim 2, wherein when the spiral mesh sheet C is heated and set, the spiral mesh sheet C is spliced into the spiral mesh belt C, and then the spiral mesh belt C is heated and set, and during the splicing process of the spiral mesh sheet C into the spiral mesh belt C, double rings can be provided, but no bulge is ensured.
4. The primary correction process of a spiral mesh sheet according to claim 2, wherein 1-5 spiral threads are reserved at both ends of the spiral mesh sheet B in comparison with a specified size in the length direction, and the reserved 1-5 spiral threads are reserved spiral threads;
after the spiral mesh C is heated, shaped and bulges are removed, the reserved spiral wires are also required to be disassembled and removed.
5. The spiral mesh panel primary correction process of claim 1, wherein in the step a, the spiral mesh panel B is obtained by disassembling the spiral mesh panel B, and before disassembling the spiral mesh panel B, the spiral mesh panel B is subjected to bevel edge correction, wherein the bevel edge correction comprises:
step a', disassembling: disassembling the spiral mesh belt A into a plurality of spiral mesh sheets A, and keeping the plurality of spiral mesh sheets A arranged in sequence and unchanged in sequence;
step b', overturning and splicing: and d, sequentially overturning the spiral meshes A at intervals to enable the inclined directions of the inclined edges of the adjacent spiral meshes A to be opposite, sequentially splicing the spiral meshes A to form a spiral mesh belt B, and ensuring that no double rings exist in the splicing process of the step B'.
6. A production process of a spiral mesh is characterized by comprising
Step 1, splicing into a belt: a plurality of spiral wires with opposite spiral directions are sequentially and alternately spliced into a spiral mesh belt A; the spiral directions of adjacent spiral wires of the spiral mesh belt A are opposite; in the splicing process of the step 1, no double rings are ensured when ring structures are alternately spliced;
step 2, bevel edge correction: performing bevel edge correction on the side edge of the spiral mesh belt A to form a spiral mesh belt B, wherein the spiral directions of adjacent spiral wires of the spiral mesh belt A are opposite;
step 3, heating and shaping: heating and shaping the spiral mesh belt B until the elongation rate reaches 20-25%;
step 4, disassembling: disassembling the spiral mesh belt B into a plurality of spiral mesh sheets B, wherein reserved spiral wires are arranged at two ends of each spiral mesh sheet B in the length direction;
step 5, primary correction: performing original mouth correction on the traditional original mouth position of the spiral mesh piece B by adopting the original mouth correction process as claimed in claim 1 to form a spiral mesh piece C; after correction, the position of the traditional original opening corresponds to the position of the monofilament B on the spiral net piece C;
step 6, splicing: splicing the spiral net sheets C into a spiral net belt C; step 6, double rings can exist in the splicing process, but no bulge is ensured;
step 7, heating and shaping: heating and shaping the spiral mesh belt C, and removing bulges;
step 8, threading filling yarns: inserting filling wires into the central ring of the spiral wires used by the spiral mesh belt C;
step 9, heating and shaping: heating and shaping the spiral mesh belt C penetrated with the filling wire, and ironing the filling wire;
step 10, disassembling: the spiral mesh sheet C penetrated with the filling wires is disassembled again from the connecting position of the adjacent spiral mesh sheets C to form the spiral mesh sheet C penetrated with the filling wires, then the reserved spiral wires in the length direction of the spiral mesh sheet C penetrated with the filling wires are disassembled and removed, and the redundant parts of the side monofilaments and the filling wires are cut off to form the spiral mesh sheet D with the specified size;
step 11, edge sealing glue treatment: performing edge sealing glue treatment on the side edge of the spiral mesh D in the width direction to obtain a spiral mesh product;
wherein, all splice in-process, all guarantee that the spiral direction of adjacent spiral silk is opposite.
7. A process for the production of a spiral web according to claim 6,
step 3, heating and shaping are carried out alternately by heating and natural cooling, and the temperature adopted during heating is 50-150 ℃;
7, heating and shaping at 60-120 ℃ for 30s-3 min;
and 9, heating and setting at 60-120 ℃ for 30s-3 min.
8. A process for the production of a spiral web according to claim 6,
the method for processing the edge sealing adhesive in the step 11 comprises the following steps:
step 11-1, sequentially connecting adjacent spiral meshes D to form a belt-shaped structure, and attaching adhesive tapes to the joints of the adjacent spiral meshes D;
step 11-2, aligning the glue brush to the side edge of the belt-shaped structure, and enabling the belt-shaped structure to move forwards along with glue discharging of the glue spreader, so that the glue is brushed on the side edge of the belt-shaped structure;
and 11-3, after the side edge is brushed with the adhesive, removing the adhesive tape, and detaching and connecting the adjacent spiral meshes D to obtain the spiral mesh product.
9. A process for the production of a spiral web according to claim 8,
the connection of the adjacent spiral meshes D adopts an intermittent connection method;
the intermittent connection method comprises the following steps: and arranging 10-15cm first connecting positions at two side edges of adjacent spiral net pieces D, and arranging 4-6cm second connecting positions at intervals of 10-15cm between the two first connecting positions.
10. A process for the production of a spiral web according to claim 9,
the connection method of the first connection position comprises the following steps: alternately inserting the ring structures positioned at the first connecting positions in the adjacent spiral net sheets D, and then penetrating connecting lines in the side rings, wherein the connecting lines penetrate through all the corresponding side rings at the first connecting positions;
the connection method of the second connection position comprises the following steps: and (4) only alternately inserting the ring structures at the second connecting position in the adjacent spiral net piece D.
CN202210240316.2A 2022-03-10 2022-03-10 Production process and original opening correction process of spiral net piece Active CN114536790B (en)

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