A type of waste template splicing and recycling combination mold

Abstract

This utility model belongs to the field of concrete formwork, specifically relating to a waste formwork splicing and recycling combination mold; it includes a formwork cutting table, a formwork splicing table, and a cutting control rod; the formwork cutting table includes a cutting table surface, on which a cutting limiting area is formed by cutting positioning parts; the cutting positioning parts include a reference edge and two control edges perpendicular to the reference edge, with positioning nodes spaced apart along the length direction on the two control edges, and the cutting control rod uses the positioning nodes on the two control edges as fulcrums to form a cutting reference for the waste formwork on the cutting table surface; the formwork splicing table includes a splicing table surface, on which a splicing limiting area is formed by splicing positioning parts, and the waste formwork cut on the cutting table surface is assembled and connected on the splicing table surface to form a recycled formwork; the waste formwork splicing and recycling combination mold provided by this utility model can effectively recycle and regenerate waste formwork on site, is easy to operate, and effectively alleviates the pressure of a surge in short-term formwork demand in engineering projects.

Description

Technical Field

[0001] This utility model belongs to the field of concrete wooden formwork, specifically relating to a mold for splicing and recycling waste formwork. Background Technology

[0002] Currently, construction projects with numerous individual structures, relatively low heights, and tight schedules often require simultaneous construction on multiple work fronts. Due to the characteristics of these projects—multiple work fronts and short construction periods—the demand for concrete formwork is high within a concentrated timeframe, but its continuous use is relatively short. This also results in a large amount of discarded formwork within a short period. Purchasing new formwork leads to low turnover and high costs; renting formwork increases rental costs and the workload of bringing materials to and removing them from the site.

[0003] Therefore, in order to address the shortage of templates in a short period of time, increase the turnover of templates, save materials, reduce construction costs, and improve economic efficiency, it is necessary to propose a waste template splicing and combination mold. This mold will utilize waste template strips and blocks to splice together standard-sized whole templates for use in construction. Utility Model Content

[0004] This utility model aims to solve the problems of low template turnover rate and high template usage cost.

[0005] This utility model provides the following technical solution: a waste template splicing and recycling combination mold, including a template cutting table, a template splicing table and a cutting control rod;

[0006] The template cutting table includes a cutting table surface, and a cutting limiting area is formed on the cutting table surface by a cutting positioning part; the cutting positioning part includes a reference edge and two control edges perpendicular to the reference edge, and positioning nodes are opened on the two control edges at intervals along the length direction. The positioning nodes on the two control edges are aligned, and the cutting control rod forms a cutting reference for the waste template on the cutting table surface with the positioning nodes on the two control edges as fulcrums.

[0007] The template splicing table includes a splicing table surface. A splicing limiting area is formed on the splicing table surface by splicing positioning parts. Waste templates cut from the cutting table surface are assembled and connected on the splicing table surface to form recycled templates.

[0008] Furthermore, the first stop bar set on the cutting table serves as the cutting positioning part, and the rectangular frame formed by the first stop bar forms the cutting limiting area; there are slots on the two parallel first stop bars, which serve as positioning nodes, and the cutting control rod is embedded in the slots.

[0009] Furthermore, the cutting limit area of ​​the cutting table surface has a cutting slit corresponding to the slot.

[0010] Furthermore, the second baffle strip set on the splicing platform serves as the splicing positioning part, and the three second baffle strips form a right-angle frame with one side open.

[0011] Furthermore, the bottom of the cutting table surface of the template cutting table is provided with support legs.

[0012] Furthermore, the bottom of the splicing platform of the template splicing table is provided with support legs.

[0013] Further, the angle steel strip of the cutting control rod is cut, and the upright plate of the cutting control rod is inserted into the slot.

[0014] Furthermore, the spacing of the slots on the first stop bar is unequal.

[0015] Compared with the prior art, the advantages of this utility model are:

[0016] This utility model provides a waste template splicing and recycling combination mold, which can effectively recycle and regenerate waste templates on site. It is easy to operate, and the splicing and assembly is smooth and efficient. It can effectively alleviate the pressure of a surge in short-term template demand for projects, save materials, and reduce operating costs. At the same time, it optimizes the materials used for splicing, making them safer and harmless.

[0017] This invention transforms discarded formwork into standard-sized recycled formwork through cutting, splicing, and reassembling, achieving efficient recycling of waste resources. Compared to purchasing or renting new formwork, it directly reduces material purchase costs, rental costs, and transportation and removal workload, effectively alleviating the short-term shortage of formwork supply and demand, improving project economic benefits, and reducing construction waste, thus aligning with green construction principles.

[0018] The cutting positioning section of the cutting table establishes a precise cutting reference system: the reference edge and the control edge form a right-angle constraint, the positioning node (slot) ensures the installation accuracy of the cutting control rod, and the guiding function of the cutting control rod makes the cutting size error of the waste template controllable, providing a prerequisite for subsequent splicing into a regular recycled template. The cutting control rod adopts an angle steel structure, and the design of inserting the upright plate into the slot is simple and easy to use, allowing workers to quickly build the cutting reference; the unequal slot spacing adapts to the cutting needs of templates of different sizes, improving the flexibility of the device.

[0019] The splicing positioning section of the splicing platform (an open right-angle frame on one side enclosed by the second stop bar) provides a clear assembly benchmark for the cut template: the right-angle side constrains the horizontal positioning of the template, and the open side facilitates the quick placement of the template, achieving efficient splicing with "instant alignment." This structure reduces the time cost of manual alignment, ensures the flatness and dimensional consistency of the spliced ​​template, and improves the overall stability and construction adaptability of the recycled template. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the template cutting table;

[0021] Figure 2 This is a schematic diagram of a template splicing platform;

[0022] Figure 3 This is a schematic diagram illustrating the use of the template cutting table;

[0023] Figure 4 This is a schematic diagram illustrating the use of the template splicing platform.

[0024] In the diagram: 1- Template cutting table; 1.1- Cutting table surface; 1.2- First stop bar; 1.3- Slot; 1.4- Cutting seam; 2- Template splicing table; 2.1- Splicing table surface; 2.2- Second stop bar; 3- Cutting control rod; 4- Waste template. Detailed Implementation

[0025] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0026] like Figures 1-4 As shown: A waste template splicing and recycling combination mold includes a template cutting table 1, a template splicing table 2, and a cutting control rod 3;

[0027] The template cutting table 1 includes a cutting table surface 1.1, on which a cutting positioning part forms a cutting limiting area. The cutting positioning part includes a reference edge and two control edges perpendicular to the reference edge. Positioning nodes are distributed at intervals along the length direction on the two control edges. The positioning nodes on the two control edges are aligned. The cutting control rod 3 forms a cutting reference for the waste template on the cutting table surface 1.1 with the positioning nodes on the two control edges as fulcrums. The waste template is placed in the cutting limiting area of ​​the cutting table surface 1.1, with one edge of the waste template close to the reference edge. The cutting control rod 3 is pressed on the waste template, and both ends of the cutting control rod 3 are limited by the positioning nodes. The cutting tool is used to cut the waste template into uniform strips.

[0028] The template splicing table 2 includes a splicing table surface 2.1. A splicing limiting area is formed on the splicing table surface 2.1 by splicing positioning parts. The waste templates cut on the cutting table surface 1.1 are assembled on the splicing table surface 2.1 to form recycled templates.

[0029] The first stop bar 1.2 set on the cutting table 1.1 serves as the cutting positioning part, and the rectangular frame formed by the first stop bar 1.2 forms the cutting limiting area; the two parallel first stop bars 1.2 have slots 1.3, which serve as positioning nodes, and the cutting control rod 3 is embedded in the slots 1.3; the distance between the slots 1.3 is the design width of the strip to be cut.

[0030] The spacing of the slots 1.3 on the first stop bar 1.2 is not uniform, to accommodate waste templates of different sizes.

[0031] Cut the angle steel strip of the cutting control rod 3, and insert the upright plate of the cutting control rod 3 into the slot 1.3; the cutting control rod 3 can also be made of square tube, in which case the slot 1.3 is widened to allow the square tube to be embedded.

[0032] The cutting limit area of ​​the cutting table 1.1 has a cutting slit 1.4 corresponding to the slot 1.3. When the cutting saw blade is attached to the cutting control rod 3, there is a downward feed space, which is convenient for cutting waste templates.

[0033] The second baffle 2.2 set on the splicing table 2.1 serves as the splicing positioning part. The three second baffles 2.2 form a right-angle frame with one side open, which facilitates the flipping and demolding of the spliced ​​boards.

[0034] The bottom of the cutting table surface 1.1 of the template cutting table 1 is provided with support legs; the bottom of the splicing table surface 2.1 of the template splicing table 2 is provided with support legs; making it convenient for workers to stand and operate.

[0035] The usage method of the waste template splicing and recycling combination mold is as follows:

[0036] S1: Collect template strips and blocks that cannot be used directly due to unsuitable dimensions after being cut and used during the formwork support process;

[0037] S2: Determine several combined width modules of the splicing strips to set the control distance between the slots 1.3 on the first stop bar 1.2, such as 200mm, 215mm, 300mm, 500mm;

[0038] S3: Place the template strips and blocks into the cutting limit area, then insert the cutting control rod 3 made of angle steel into the corresponding module slot 1.3, press the strip tightly, and use a cutting machine to cut the waste strips into the width of a specific module along the edge of the cutting control rod 3, and sort and place them.

[0039] S4: Select the cut splicable strips and place them into the splicing limit area of ​​splicing table 2.1. Use a hammer to fully tap the strips into the splicing limit area so that the surface of each strip is flat and without warping, and the gaps between the strips are squeezed together.

[0040] S5: Use a nail gun to nail the side strips evenly and straight along the splicing seam, with a uniform spacing of about 2 to 3 cm between adjacent nails;

[0041] S6: Turn over and nail the seams again to make the slats fit together firmly;

[0042] S7: Take out the assembled recycled template and stack it neatly for later use.

[0043] The above description of the disclosed embodiments enables those skilled in the art to make or use the present invention. Various modifications to these embodiments will be readily apparent to those skilled in the art, and the general principles defined herein may be implemented in other embodiments without departing from the spirit or scope of the present invention. Therefore, the present invention is not to be limited to the embodiments shown herein, but is to be accorded the widest scope consistent with the principles and novel features disclosed herein.

Claims

1. A mold for the splicing and recycling of waste templates, characterized in that: It includes a template cutting table (1), a template splicing table (2), and a cutting control rod (3); The template cutting table (1) includes a cutting table surface (1.1), and a cutting limit area is formed on the cutting table surface (1.1) by a cutting positioning part; the cutting positioning part includes a reference edge and two control edges perpendicular to the reference edge, and positioning nodes are opened on the two control edges at intervals along the length direction. The positioning nodes on the two control edges are aligned, and the cutting control rod (3) forms a cutting reference for the waste template on the cutting table surface (1.1) with the positioning nodes on the two control edges as fulcrums; The template splicing table (2) includes a splicing table surface (2.1). A splicing limiting area is formed on the splicing table surface (2.1) by a splicing positioning part. The waste templates cut on the cutting table surface (1.1) are assembled on the splicing table surface (2.1) to form a recycled template.

2. The waste template splicing and recycling combination mold according to claim 1, characterized in that: The first stop bar (1.2) set on the cutting table (1.1) serves as the cutting positioning part, and the rectangular frame formed by the first stop bar (1.2) forms the cutting limiting area; there are slots (1.3) on the two parallel first stop bars (1.2), and the slots (1.3) serve as positioning nodes, and the cutting control rod (3) is embedded in the slots (1.3).

3. The waste template splicing and recycling combination mold according to claim 2, characterized in that: The cutting table (1.1) has a cutting slit (1.4) in the cutting limiting area that corresponds to the slot (1.3).

4. A waste template splicing and recycling combination mold according to any one of claims 1 to 3, characterized in that: The second baffle (2.2) set on the splicing platform (2.1) serves as the splicing positioning part, and the three second baffles (2.2) form a right-angle frame with one side open.

5. A waste template splicing and recycling combination mold according to claim 2, characterized in that: The template cutting table (1) has legs distributed at the bottom of the cutting table surface (1.1).

6. The waste template splicing and recycling combination mold according to claim 4, characterized in that: The splicing table (2) of the template splicing table (2) has legs distributed at the bottom of the splicing table surface (2.1).

7. A waste template splicing and recycling combination mold according to claim 2, characterized in that: The angle steel strip of the cutting control rod (3) and the upright plate of the cutting control rod (3) are inserted into the slot (1.3).

8. A waste template splicing and recycling combination mold according to claim 2, characterized in that: The spacing of the slots (1.3) on the first stop bar (1.2) is not equal.

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