Multi-bin mechanical side-standing mold

Abstract

The embodiment of the utility model discloses a multi-bin mechanical side-standing mold, a mold piece structure comprises outer leaf mold pieces, inner leaf mold pieces and limiting structures, the mold pieces are arranged in parallel, the inner leaf mold pieces are arranged between the outer leaf mold pieces, and the limiting structures are arranged between the adjacent mold pieces; the chassis mechanical structure is arranged below the mold piece structure and comprises a beam structure, a transverse sliding square shaft and two-way shaft shells, the transverse sliding square shaft is fixedly connected with the beam structure, the transverse sliding square shaft is sleeved with the two-way shaft shells, and the sliding lifting structure is arranged between every two adjacent two-way shaft shells. The structure comprises a supporting structure, a bearing beam structure, a first square shaft sleeve and a pull rod structure, the supporting structure is located below the bearing beam structure, and the pull rod structure penetrates through the supporting structure. According to the multi-bin mechanical side-standing mold, wallboards of different heights, widths and thicknesses can be prefabricated, the occupied area can be reduced, and the mold utilization rate is increased.

Description

Technical Field

[0001] This utility model relates to the field of industrialized production equipment for construction machinery, and in particular to a multi-compartment mechanical side-mounted mold. Background Technology

[0002] With the increasing demands for efficiency and quality in the construction industry, precast concrete technology has gradually developed. Precast wall panel component molds are an important part of building industrialization. The advantage of precast wall panel components lies in their ability to achieve standardized production, reduce the complexity and uncertainty of on-site construction, and greatly improve the efficiency and quality of building construction. Therefore, precast wall panel molds play an important role in the modern construction industry.

[0003] Traditional flat mold production molds are usually designed to be heavy and bulky, which makes them difficult to handle and store, increasing labor intensity and production costs. Secondly, flat mold production requires a flat surface, which occupies a lot of production space and is not conducive to efficient use of the site. At the same time, traditional molds are often designed for wall panels of specific sizes and shapes, resulting in poor mold versatility, inability to adapt to diverse production needs, increased mold manufacturing costs, and low mold utilization.

[0004] Therefore, it is particularly important to develop a multi-compartment mechanical side-mounted mold that can mechanically transform prefabricated wall panels to meet different requirements, reduce the floor space, improve mold utilization, and thus reduce the cost of manufacturing cast-in-place components. Utility Model Content

[0005] To address the aforementioned technical problems, this application provides a multi-compartment mechanical side-mounted mold, which can solve the current lack of multi-compartment mechanical side-mounted molds capable of prefabricating wall panels that meet different requirements, reducing floor space, improving mold utilization, and thus reducing the cost of manufacturing cast components.

[0006] The technical solution provided in this application is as follows:

[0007] This application provides a multi-compartment mechanical side-erecting mold, which is used for prefabricating wall panel components. The multi-compartment mechanical side-erecting mold includes:

[0008] A template structure, comprising an outer leaf template, an inner leaf template, and a limiting structure, wherein the outer leaf template and the inner leaf template are arranged in parallel, the inner leaf template is disposed between the outer leaf templates, and the limiting structure is disposed between adjacent outer leaf templates and inner leaf templates;

[0009] A chassis mechanical structure is provided below the module structure. The chassis mechanical structure includes a beam structure, a transverse sliding square shaft, and a bidirectional axle housing. The transverse sliding square shaft is fixedly connected to the beam structure. The bidirectional axle housing is sleeved on the transverse sliding square shaft and slidably connected to the transverse sliding square shaft. The bidirectional axle housing is detachably connected to the module structure. The beam structure includes a crossbeam and longitudinal beams. The bottom of the bidirectional axle housing is slidably connected to the crossbeam. The crossbeam is located below the transverse sliding square shaft, and the longitudinal beams are located on the outer sides of both ends of the crossbeam.

[0010] A sliding lifting structure is provided, which is disposed between two adjacent bidirectional shaft housings. The sliding lifting structure includes a support structure, a pad beam structure, a first square bushing, and a tie rod structure. The support structure is located below the pad beam structure, the first square bushing is connected to the lower part of the support structure, and the tie rod structure passes through the support structure.

[0011] In some optional embodiments, a longitudinal rib is provided on the upper outer side of the outer leaf module. The longitudinal rib is H-shaped, and a reinforcing flat plate is provided at both ends of the longitudinal rib. The distance from the center of the reinforcing flat plate to the end of the longitudinal rib closest to it is in a ratio of 1:5 to 1:7 to the length of the longitudinal rib.

[0012] In some alternative embodiments, the crossbeams are evenly distributed horizontally among the longitudinal beams, and the transverse sliding square shaft is disposed above each of the crossbeams, with both ends of the transverse sliding square shaft fixed to the longitudinal beams.

[0013] In some optional embodiments, two limiting screws are arranged horizontally above the template structure. One end of the limiting screw is detachably connected to the longitudinal purlin through a limiting fixing lug, and the other end of the limiting screw is detachably connected to the longitudinal purlin through a limiting fastener and a nut. The limiting fastener is located inside the nut.

[0014] In some optional embodiments, the limiting structure is a head mold limiting plate, and a head mold limiting plate is provided between any two adjacent outer leaf mold pieces and inner leaf mold pieces. The head mold limiting plate is provided with limiting holes, which are used to adjust the length of the cavity formed between any two adjacent outer leaf mold pieces and inner leaf mold pieces.

[0015] In some optional embodiments, a second square bushing is provided on the transverse sliding square shaft, the second square bushing is fixedly connected to the bidirectional shaft housing, and a transmission gear and a transmission rack are provided between the second square bushing and the transverse sliding square shaft.

[0016] In some alternative embodiments, the chassis mechanical structure further includes a longitudinal rotating shaft, a turbine housing, and a turbine. The longitudinal rotating shaft is used to connect two bidirectional shaft housings that are adjacent in the longitudinal direction. The turbine is sleeved on the longitudinal rotating shaft, and the turbine housing is sleeved on the turbine.

[0017] In some optional embodiments, the chassis mechanical structure further includes a connecting transmission component, a spline bearing assembly, and a transmission bearing assembly. The spline bearing assembly includes a spline shaft and a spline bushing. The spline bushing is disposed on the turbine housing and sleeved on the spline shaft. The connecting transmission component and the transmission bearing assembly are disposed at one end of the spline shaft.

[0018] In some optional embodiments, the support structure is a hinge strut, which includes a connecting rod and a strut. A stabilizing block is provided at the connection between the connecting rod and the strut. A threaded structure is provided at the center of the stabilizing block, and the tie rod structure passes through the threaded structure.

[0019] In some optional embodiments, the tie rod structure is a threaded tie rod, with a threaded sleeve at the center of the threaded tie rod. The threaded tie rods located at both ends of the threaded sleeve are a first part and a second part of the threaded tie rod, respectively. One end of the first part and the second part of the threaded tie rod are both located inside the threaded sleeve, and the other end of the first part and the second part of the threaded tie rod both pass through the stabilizing block.

[0020] The multi-compartment mechanical side-standing mold provided in this application includes a mold plate structure, which includes an outer leaf mold plate and an inner leaf mold plate, the outer leaf mold plate and the inner leaf mold plate being arranged in parallel, and the inner leaf mold plate being disposed between the outer leaf mold plates; a chassis mechanical structure, which is disposed below the mold plate structure, the chassis mechanical structure including a first beam structure, a transverse sliding square shaft, and a bidirectional shaft housing, the transverse sliding square shaft being fixedly connected to the first beam structure, the bidirectional shaft housing being sleeved on the transverse sliding square shaft, the bidirectional shaft housing being slidably connected to the transverse sliding square shaft, and the bidirectional shaft housing being detachably connected to the mold plate structure; and a sliding elevator structure, which is disposed between two adjacent bidirectional shaft housings, the elevator structure including a support structure, a second beam structure, a first square shaft sleeve, and a tie rod structure, the support structure being located below the second beam structure, the first square shaft sleeve being connected below the support structure, and the tie rod structure being disposed through the support structure. The multi-compartment mechanical side-standing mold provided in this application is equipped with a mold plate structure, a chassis mechanical structure, and a sliding lifting structure. Through the movable limiting structure, bidirectional shaft shell, and lifting structure, it can produce wall panels that meet different height, width, and thickness requirements. Moreover, the side-standing mold can reduce the floor space occupied and improve the mold utilization rate, thereby reducing the cost of manufacturing cast components. Attached Figure Description

[0021] To more clearly illustrate the technical solutions in the embodiments of this application, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0022] Figure 1 This is a schematic diagram of the mold plate structure of a multi-compartment mechanical side-standing mold according to an embodiment of the present invention;

[0023] Figure 2 This is a schematic diagram of the chassis mechanical structure of a multi-compartment mechanical side-standing mold according to an embodiment of the present invention;

[0024] Figure 3 This is a schematic diagram of the sliding and lifting structure of a multi-compartment mechanical side-standing mold according to an embodiment of the present invention.

[0025] The following is supplementary explanation of the attached figures:

[0026] 1-Module structure; 11-Outer leaf module; 12-Inner leaf module; 13-Longitudinal purlin; 14-Reinforcing flat plate; 15-Limiting screw; 16-Limiting fastener; 17-Nut plate; 18-End mold limiting plate; 19-Grate beam square steel tube; 110-Steel panel; 111-Limiting piece; 112-Hexagonal nut pin; 113-Connecting ear; 114-Limiting fixing ear piece;

[0027] 2-Chassis mechanical structure; 21-Transverse sliding square shaft; 22-Double-direction shaft housing; 23-Crossbeam; 24-Longitudinal beam; 25-Longitudinal rotating shaft; 26-Turbine box; 27-Turbine; 28-Splined shaft; 29-Splined shaft; 210-Double-direction shaft housing connecting lug; 211-Transmission bearing assembly; 212-Connecting transmission component; 213-Gear;

[0028] 3-Sliding lifting structure; 31-Support structure; 32-Padded beam structure; 33-First square bushing; 34-Tie rod structure; 35-Stabilizing block; 36-Threaded sleeve; 37-Threaded pin; 38-Steel pin; 39-Hexagonal transmission head. Detailed Implementation

[0029] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of this application, and not all of them. All other embodiments obtained by those skilled in the art based on the embodiments of this application without creative effort are within the scope of protection of this application.

[0030] The term "an embodiment" or "embodiment" as used herein refers to a specific feature, structure, or characteristic that may be included in at least one implementation of this application. In the description of this application, it should be understood that the terms "upper," "lower," "top," "bottom," etc., indicating orientation or positional relationships based on the orientation or positional relationships shown in the accompanying drawings, are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this application. Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of indicated technical features. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. Moreover, the terms "first," "second," etc., are used to distinguish similar objects and are not necessarily used to describe a specific order or sequence. It should be understood that such data can be interchanged where appropriate so that the embodiments of this application described herein can be implemented in orders other than those illustrated or described herein.

[0031] When a numerical range is disclosed herein, the range is considered continuous and includes the minimum and maximum values ​​of the range, as well as every value between the minimum and maximum values. Furthermore, when the range refers to an integer, it includes every integer between the minimum and maximum values ​​of the range. Additionally, when multiple ranges are provided to describe a feature or characteristic, the ranges may be combined. In other words, unless otherwise specified, all ranges disclosed herein should be understood to include any and all subranges to which they are included. For example, a specified range from “1 to 10” should be considered to include any and all subranges between the minimum value 1 and the maximum value 10. Exemplary subranges of the range 1 to 10 include, but are not limited to, 1 to 6.1, 3.5 to 7.8, 5.5 to 10, etc.

[0032] Because the molds currently in use are heavy, making them difficult to handle and store, and occupy a large amount of production space, which is not conducive to the efficient use of the site, and because the molds have poor versatility and cannot adapt to diverse production needs, they increase the manufacturing cost of the molds and have low utilization rates. Therefore, in order to produce wall panels that meet the requirements of different heights, widths and thicknesses, and because side-standing molds can reduce the floor space occupied and improve the mold utilization rate, thereby reducing the cost of manufacturing cast components, this application provides a multi-compartment mechanical side-standing mold.

[0033] The multi-compartment mechanical side-erecting mold provided in this application is used for prefabricated wall panel components, the multi-compartment mechanical side-erecting mold comprising:

[0034] The template structure 1 includes an outer leaf template 11, an inner leaf template 12, and a limiting structure. The outer leaf template 11 and the inner leaf template 12 are arranged in parallel. The inner leaf template 12 is disposed between the outer leaf templates 11. The limiting structure is disposed between adjacent outer leaf templates 11 and inner leaf templates 12.

[0035] The chassis mechanical structure 2 is located below the module structure 1. The chassis mechanical structure 2 includes a beam structure, a transverse sliding square shaft 21, and a bidirectional shaft housing 22. The transverse sliding square shaft 21 is fixedly connected to the beam structure. The bidirectional shaft housing 22 is sleeved on the transverse sliding square shaft 21 and slidably connected to the transverse sliding square shaft 21. The bidirectional shaft housing 22 is detachably connected to the module structure 1. The beam structure includes a crossbeam 23 and a longitudinal beam 24. The bottom of the bidirectional shaft housing 22 is slidably connected to the crossbeam 23. The crossbeam 23 is located below the transverse sliding square shaft 21. The longitudinal beam 24 is located on the outer sides of both ends of the crossbeam 23.

[0036] The sliding lifting structure 3 is disposed between two adjacent bidirectional shaft housings 22. The sliding lifting structure 3 includes a support structure 31, a pad beam structure 32, a first square bushing 33, and a tie rod structure 34. The support structure 31 is located below the pad beam structure 32, the first square bushing 33 is connected to the lower part of the support structure 31, and the tie rod structure 34 is disposed through the support structure 31.

[0037] Optionally, the multi-compartment mechanical side-standing mold includes three structures: a mold plate structure 1, a chassis mechanical structure 2, and a sliding lifting structure 3, which are detachably connected.

[0038] Optionally, both the outer leaf module 11 and the inner leaf module 12 are side-mounted. There are two outer leaf modules 11 and several inner leaf modules 12. The specific number can be set according to actual business needs and is not limited here. For example, there are three inner leaf modules 12.

[0039] Optionally, the limiting structure on the template structure 1 can be moved through the limiting holes, thereby enabling the casting of wall panel components of different heights. The side-standing design of the template structure 1 allows the mold to occupy less storage space when not in use, facilitating storage and management, shortening the installation and disassembly time of the mold, and thus improving production efficiency. At the same time, the side-standing mold can be quickly adjusted according to different production needs to adapt to the production of wall panel components of various specifications and types.

[0040] Optionally, the chassis mechanical structure 2 is located at the bottom of the entire multi-compartment mechanical side-standing mold, used to support the mold plate structure 1 and to slide and adjust the mold plate. The chassis mechanical structure 2 with the sliding structure can adjust the mold plate by sliding, which can meet the needs of prefabricating wall panel components of different thicknesses.

[0041] Optionally, the sliding lifting structure 3 is set at the bottom of the template structure 1, and the wall panels of different widths are cast by lifting the template structure 1 up and down.

[0042] Optionally, each outer leaf module 11 and inner leaf module 12 is provided with a grid beam square steel tube 19, and each module is also equipped with a steel panel 110 corresponding to its specifications. The modules, grid beam square steel tube 19 and steel panel 110 are connected together by drilling and spot welding. In addition, these components are also connected by bolts through holes reserved on the side of the grid beam square steel tube 19.

[0043] In an optional embodiment, a longitudinal rib 13 is provided on the upper outer side of the outer leaf module 11. The longitudinal rib 13 is H-shaped, and a reinforcing flat plate 14 is provided at both ends of the longitudinal rib 13. The distance from the center of the reinforcing flat plate 14 to one end of the longitudinal rib 13 closest to it is in a ratio of 1:5 to 1:7 to the length of the longitudinal rib 13.

[0044] Optionally, the longitudinal purlin 13 is set on the outside of the square steel tube 19 of the grid beam above the outer leaf mold 11. The specifications of the longitudinal purlin 13 can be selected according to actual business needs and are not limited here. For example, the longitudinal purlin 13 can be made of 15# H-beam steel. The longitudinal purlin 13 is arranged along the length direction of the mold structure to enclose or support the mold piece and enhance the overall rigidity and stability of the structure.

[0045] Optionally, reinforcing flat plates 14 are provided at both ends of the two longitudinal purlins 13 on both sides. The reinforcing flat plates 14 are used to install different types of components with limiting functions to fix the limiting screws 15.

[0046] Optionally, the reinforcing flat plate 14 is respectively set at both ends of the two longitudinal purlins 13. The position of the reinforcing flat plate 14 can be set according to actual business needs and is not limited here. For example, the two ends of the longitudinal purlins 13 are respectively provided with reinforcing flat plates 14. The distance from the center of the reinforcing flat plate 14 to one end of the longitudinal purlin 13 closest to it is in a ratio of 1:6 to the length of the longitudinal purlin 13. That is, the upper and lower reinforcing flat plates 14 are set at 1 / 6 of the plane at both ends of the longitudinal purlins 13 on both sides.

[0047] Optionally, the size of the reinforcing flat plate 14 can be set according to actual business needs, and is not limited here. For example, the length and width of the reinforcing flat plate 14 are 150mm, and the thickness is 5mm. It is welded to the edge of the H-shaped longitudinal purlin 13 to form a square.

[0048] Optionally, a hole is pre-drilled in the center of the reinforcing flat plate 14, and a vertical bearing sleeve and a hexagonal head shaft are installed in the hole. The bearing sleeve is used to support and fix the shaft, and the hexagonal head shaft is provided to facilitate rotation or fixation using tools.

[0049] Optionally, the bottom of the outer leaf mold plate 11 and the inner leaf mold plate 12 are evenly provided with a plurality of movable connecting ears 113. These connecting ears 113 have pin holes for connection and steel pins that can be inserted into these holes. Above the connecting ears 113, there are also limiting and fixing ears 114 for corresponding to the hexagonal nut tapered pins. These limiting and fixing ears 114 have holes through which the limiting hexagonal nut tapered pins pass and are fixed to the limiting and fixing ears 114, thereby realizing the functions of locking and limiting. When the bottom sliding bidirectional shaft housing 22 moves, the outer leaf mold plate 11 and the inner leaf mold plate 12 connected to it will also move accordingly, which can realize the purpose of adjusting the wall thickness of the mold cavity, that is, changing the thickness of the precast wall panel as needed.

[0050] In an optional embodiment, two limiting screws 15 are arranged horizontally above the module structure 1. One end of the limiting screw 15 is detachably connected to the longitudinal purlin 13 through a limiting fixing lug. The other end of the limiting screw 15 is detachably connected to the longitudinal purlin 13 through a limiting fastener 16 and a nut piece 17. The limiting fastener 16 is located inside the nut piece 17.

[0051] Optionally, two horizontal limiting screws 15 are provided on the upper end of the hexagonal head shaft of the reinforcing flat plate 14 on one side of the longitudinal purlin 13 for connecting and limiting the pull. At the same time, the limiting screws 15 are equipped with connecting kits. On the other side of the longitudinal purlin 13, the reinforcing flat plate 14 is equipped with limiting fasteners 16 and nut pieces 17.

[0052] Optionally, limiting plates 111 are provided on the limiting screw 15 according to the shape and position of the upper opening of the inner leaf mold 12. These limiting plates 111 have pin holes, and correspondingly there are hexagonal nut pins 112, which are used for fixing and limiting through the pin holes. A nut plate 17 is installed at the other end of the limiting screw 15, which is used to cooperate with the limiting fastener 16 for fixing and adjusting the position. When the limiting screw 15 transmits rotational force through the vertical hexagonal head shaft, the hexagonal nut pin 112 can be aligned with the hole of the limiting fixing lug and inserted, thereby realizing the limiting.

[0053] The position of the mold piece can be precisely controlled by setting the limiting screw 15. The limiting screw 15 can be adjusted according to different mold designs and product requirements to ensure that the size and shape of the precast wall panel components meet the design requirements, improve the dimensional accuracy of the product, and the limiting screw 15 helps to maintain the stability of the mold and reduce the displacement of the mold piece during concrete pouring. The limiting screw 15 can be adjusted according to different mold designs and product requirements, and has strong adaptability.

[0054] In an optional embodiment, the limiting structure is a head mold limiting plate 18. A head mold limiting plate 18 is provided between any two adjacent outer leaf mold pieces 11 and inner leaf mold pieces 12. The head mold limiting plate 18 is provided with limiting holes, which are used to adjust the length of the cavity formed between any two adjacent outer leaf mold pieces 11 and inner leaf mold pieces 12.

[0055] Optionally, end cap tooling limiting plates 18 are installed at both ends of the cavity length of adjacent outer leaf mold 11 and inner leaf mold 12. The end cap tooling limiting plates 18 are provided with various holes, including rib extension limiting holes, mold core holes, and sleeve extension limiting holes. These tooling limiting plates 18, outer leaf mold 11, and inner leaf mold 12 are also provided with adjustable distance limiting holes. These limiting holes contain magnetic steel pins for fixing and positioning. By setting adjustable limiting pin holes and magnetic pins on the end cap tooling limiting plates 18, the length of the multi-compartment side-standing mold cavity can be adjusted. This design can meet the wall panel casting requirements of different floor heights. By adjusting the mold cavity length, wall panels of different heights can be produced.

[0056] In an optional embodiment, the crossbeams 23 are evenly distributed between the longitudinal beams 24 in a horizontal direction, and the transverse sliding square shaft 21 is disposed above each of the crossbeams 23, with both ends of the transverse sliding square shaft 21 fixed on the longitudinal beams 24.

[0057] Optionally, there are two longitudinal beams 24, distributed on both sides. The longitudinal beams 24 are made of No. 30 channel steel and also include reinforcing ribs in the extended portion to enhance the strength and stability of the beam.

[0058] Optionally, the number of crossbeams 23 can be set according to actual business needs, and is not limited here. The crossbeams 23 are made of No. 15 H-beams, and the two ends of the crossbeams 23 are welded to the longitudinal beams 24 on both sides. The bottom of the crossbeams 23 is flush with the inside of the longitudinal beams 24.

[0059] Optionally, the upper half of the inner side of the longitudinal beam 24 is provided with a transverse sliding square shaft 21 that can slide laterally. The head of the transverse sliding square shaft 21 is equipped with a connecting fixing bolt for connecting and fixing other components.

[0060] By setting up crossbeams 23 and longitudinal beams 24, the crossbeams 23 can support and distribute the pressure. The pressure is transmitted from the crossbeams 23 to the longitudinal beams 24 on both sides, which play a role in lateral support. Finally, the force is distributed to the entire chassis mechanical structure 2, ensuring the stability and structural integrity of the entire mold system.

[0061] In an optional embodiment, a second square bushing is provided on the transverse sliding square shaft 21, the second square bushing is fixedly connected to the bidirectional shaft housing 22, and a transmission gear 213 and a transmission rack are provided between the second square bushing and the transverse sliding square shaft 21.

[0062] Optionally, a slidable second square bushing is installed on the transverse sliding square shaft 21 and connected to the bidirectional shaft housing 22. The bidirectional shaft housing 22 is designed with a bottom slide plate, as well as bolts and holes for fixing. The second square bushing is equipped with a transverse sliding square shaft rod inside, and its bottom is equipped with a transmission rack. The bidirectional shaft housing connecting ear 210 matches the movable leaf connecting ear at the bottom of the outer leaf mold 11 and the inner leaf mold 12. The connecting ear has a hole for inserting a connecting pin. The bottom of the transverse sliding square shaft 21 is equipped with a rack that matches the gear.

[0063] By setting a transverse sliding square shaft 21 to move the bidirectional shaft housing 22, the position of the mold can be precisely adjusted to ensure the accuracy of the production dimensions of the precast wall panels, improve the versatility and adaptability of the mold, and make the movement and positioning of the mold faster, thereby improving production efficiency and shortening the production cycle.

[0064] In an optional embodiment, the chassis mechanical structure 2 further includes a longitudinal rotating shaft 25, a turbine housing 26, and a turbine 27. The longitudinal rotating shaft 25 is used to connect two bidirectional shaft housings 22 that are adjacent in the longitudinal direction. The turbine 27 is sleeved on the longitudinal rotating shaft 25, and the turbine housing 26 is sleeved on the turbine 27.

[0065] In an optional embodiment, the chassis mechanical structure 2 further includes a connecting transmission component, a spline bearing assembly, and a transmission bearing assembly. The spline bearing assembly includes a spline shaft 28 and a spline bushing 29. The spline bushing 29 is disposed on the turbine housing 26 and sleeved on the spline shaft 28. The connecting transmission component 212 and the transmission bearing assembly 211 are disposed at one end of the spline shaft 28.

[0066] Optionally, the gear 213 is provided with a transmission longitudinal shaft hole and a longitudinal rotating shaft 25, which passes through the turbine housing 26. The two ends of the spline shaft 28 are equipped with transmission bearings and bushings, including fasteners and nuts, for fixing and supporting the spline shaft 28.

[0067] Optionally, one end of the spline shaft 28 is equipped with a transmission component for connecting a motor. The motor can drive the spline shaft 28 to rotate through the transmission component. The rotation of the spline shaft 28 then drives the spline bushing 29. The thread on the spline bushing 29 interacts with the gear 213 in the turbine housing 26, transmitting the rotational motion to the gear 213. The power is then transmitted to the longitudinal rotating shaft 25 through the turbine housing 26. The gear 213 meshes with the rack groove at the bottom of multiple transverse sliding square shafts 21, allowing power to be transmitted to these transverse sliding square shafts 21. This enables the bidirectional shaft housing 22 to slide left and right on the transverse sliding square shaft 21, thereby achieving position change or adjustment. When the bidirectional shaft housing 22 moves, it can drive the outer blade 11 and the inner blade 12 to move left and right.

[0068] Through the cooperation of a series of transmission components such as splined shaft 28, gear 213, and turbine box 26, precise control and adjustment of the mold position can be achieved, ensuring the production accuracy of precast wall panels. The transmission components such as splined shaft 28 and gear 213 can provide smooth movement, reduce vibration and impact, and the gear transmission system usually has high transmission efficiency, allowing the mold to be quickly adjusted according to different production needs, adapting to the production of precast wall panels of various sizes and shapes.

[0069] In an optional embodiment, the support structure 31 is a hinge strut, which includes a connecting rod and a strut. A stabilizing block 35 is provided at the connection between the connecting rod and the strut. A threaded structure is provided at the center of the stabilizing block 35, and the pull rod structure 34 passes through the threaded structure.

[0070] Optionally, the support structure 31 is connected to the connecting lug on the pad beam structure 32 by a screw pin 37, and the pad beam structure 32 is provided with a steel pin 38.

[0071] Optionally, a stabilizing block 35 is provided, and the threaded structure of the tie rod 34 passes through the threaded structure of the stabilizing block. The stabilizing block provides a fixed support point for the tie rod, which can prevent the tie rod from excessive displacement or bending when under force, thereby ensuring the stability of the entire mold structure. Furthermore, through the stabilizing block 35, the force of the tie rod structure 34 can be transmitted to various parts of the mold more evenly, reducing stress concentration and improving the service life of the mold. At the same time, the threaded structure allows for fine adjustment, making the height and size adjustment of the mold more precise, which helps to produce prefabricated wall panels with accurate dimensions.

[0072] In an optional embodiment, the tie rod structure 34 is a threaded tie rod, with a threaded sleeve 36 at its center. The threaded tie rods located at both ends of the threaded sleeve 36 are a first part and a second part, respectively. One end of each of the first and second parts is located inside the threaded sleeve 36, and the other end of each of the first and second parts passes through the stabilizing block 35.

[0073] Optionally, the tie rod structure 34 is divided into two sections at both ends of the mold cavity. Each section has a movable limiting pin 37 at one end and a threaded sleeve 36 and nut of a specific type at the other end. The nut on the threaded sleeve 36 matches the tie rod structure 34, so that one end of the tie rod structure 34 can be screwed into the nut of the threaded sleeve 36, and the other end is located in the hole of the stabilizing block 35 and anchored by the movable limiting pin.

[0074] Optionally, the threaded sleeve 36 passes through the outer part of the stabilizing block 35, and its end is equipped with a hexagonal transmission head 39. It can be operated in both forward and reverse directions by a motor and the sleeve. The forward operation will tighten the tie rod, thereby supporting the support structure 31, raising the pad beam structure 32 at the bottom of the mold cavity, and increasing the height of the mold. The reverse operation will lower the pad beam structure 32 and reduce the height of the mold. This adjustment mechanism allows the wall panel to be cast within the effective height of the side mold, thereby producing wall panels of different widths to meet diverse production needs.

[0075] The multi-compartment mechanical side-mounted mold provided in this application includes a mold plate structure 1, which includes an outer leaf mold plate 11, an inner leaf mold plate 12, and a limiting structure. The outer leaf mold plate 11 and the inner leaf mold plate 12 are arranged in parallel, with the inner leaf mold plate 12 disposed between the outer leaf mold plates 11. The limiting structure is disposed between adjacent outer leaf mold plates 11 and inner leaf mold plates 12. A chassis mechanical structure 2 is disposed below the mold plate structure 1. The chassis mechanical structure 2 includes a beam structure, a transverse sliding square shaft 21, and a bidirectional shaft housing 22. The transverse sliding square shaft 21 is fixedly connected to the beam structure. The bidirectional shaft housing 22 is sleeved on the transverse sliding square shaft 21, and the bidirectional shaft housing 22 is slidably connected to the transverse sliding square shaft 21. The bidirectional shaft housing 22 is detachably connected to the template structure 1. A sliding lifting structure 3 is disposed between two adjacent bidirectional shaft housings 22. The sliding lifting structure 3 includes a support structure 31, a pad beam structure 32, a first square shaft sleeve 33, and a tie rod structure 34. The support structure 31 is located below the pad beam structure 32, the first square shaft sleeve 33 is connected below the support structure 31, and the tie rod structure 34 penetrates the support structure 31. The multi-compartment mechanical side-standing mold provided in this application is equipped with a template structure 1, a chassis mechanical structure 2, and a sliding lifting structure 3. Through the adjustable limiting structure, the bidirectional shaft housing 22, and the support structure 31, it is possible to manufacture wall panels that meet different height, width, and thickness requirements. Furthermore, the side-standing mold can reduce the floor space occupied, improve mold utilization, and thus reduce the cost of manufacturing cast components.

[0076] The above description is only an optional embodiment of this application and is not intended to limit this application. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this application should be included within the protection scope of this application.

Claims

1. A multi-compartment mechanical side-standing mold, characterized in that, The multi-compartment mechanical side-standing mold is used for prefabricating wall panel components, and the multi-compartment mechanical side-standing mold includes: The template structure (1) includes an outer leaf template (11), an inner leaf template (12), and a limiting structure. The outer leaf template (11) and the inner leaf template (12) are arranged in parallel. The inner leaf template (12) is arranged between the outer leaf templates (11). The limiting structure is arranged between adjacent outer leaf templates (11) and inner leaf templates (12). The chassis mechanical structure (2) is located below the module structure (1). The chassis mechanical structure (2) includes a beam structure, a transverse sliding square shaft (21), and a bidirectional shaft housing (22). The transverse sliding square shaft (21) is fixedly connected to the beam structure. The bidirectional shaft housing (22) is sleeved on the transverse sliding square shaft (21) and slidably connected to the transverse sliding square shaft (21). The bidirectional shaft housing (22) is detachably connected to the module structure (1). The beam structure includes a crossbeam (23) and a longitudinal beam (24). The bottom of the bidirectional shaft housing (22) is slidably connected to the crossbeam (23). The crossbeam (23) is located below the transverse sliding square shaft (21), and the longitudinal beam (24) is located on the outer sides of both ends of the crossbeam (23). The sliding lifting structure (3) is disposed between two adjacent bidirectional shaft housings (22). The sliding lifting structure (3) includes a support structure (31), a pad beam structure (32), a first square bushing (33), and a tie rod structure (34). The support structure (31) is located below the pad beam structure (32). The first square bushing (33) is connected below the support structure (31). The tie rod structure (34) is disposed through the support structure (31).

2. The multi-compartment mechanical side-standing mold according to claim 1, characterized in that, The outer leaf module (11) is provided with a longitudinal strip (13) on the upper outer side. The longitudinal strip (13) is H-shaped. The two ends of the longitudinal strip (13) are respectively provided with a reinforcing flat plate (14). The distance from the center of the reinforcing flat plate (14) to one end of the longitudinal strip (13) is in the ratio of 1:5 to 1:7 to the length of the longitudinal strip (13).

3. The multi-compartment mechanical side-standing mold according to claim 1, characterized in that, The crossbeams (23) are evenly distributed between the longitudinal beams (24) in the horizontal direction. The transverse sliding square shaft (21) is set above each crossbeam (23), and the two ends of the transverse sliding square shaft (21) are fixed on the longitudinal beams (24).

4. The multi-compartment mechanical side-standing mold according to claim 2, characterized in that, Above the template structure (1), two limiting screws (15) are arranged in the horizontal direction. One end of the limiting screw (15) is detachably connected to the longitudinal purlin (13) through a limiting fixing lug. The other end of the limiting screw (15) is detachably connected to the longitudinal purlin (13) through a limiting fastener (16) and a nut piece (17). The limiting fastener (16) is located inside the nut piece (17).

5. The multi-compartment mechanical side-standing mold according to claim 1, characterized in that, The limiting structure is a head mold limiting plate (18). A head mold limiting plate (18) is provided between any two adjacent outer leaf mold pieces (11) and inner leaf mold pieces (12). A limiting hole is provided on the head mold limiting plate (18). The limiting hole is used to adjust the length of the cavity formed between any two adjacent outer leaf mold pieces (11) and inner leaf mold pieces (12).

6. The multi-compartment mechanical side-standing mold according to claim 1, characterized in that, A second square bushing is provided on the transverse sliding square shaft (21), the second square bushing is fixedly connected to the bidirectional shaft housing (22), and a transmission gear (213) and a transmission rack are provided between the second square bushing and the transverse sliding square shaft (21).

7. The multi-compartment mechanical side-standing mold according to claim 1, characterized in that, The chassis mechanical structure (2) also includes a longitudinal rotating shaft (25), a turbine housing (26), and a turbine (27). The longitudinal rotating shaft (25) is used to connect two bidirectional shaft housings (22) that are adjacent in the longitudinal direction. The turbine (27) is sleeved on the longitudinal rotating shaft (25), and the turbine housing (26) is sleeved on the turbine (27).

8. The multi-compartment mechanical side-standing mold according to claim 7, characterized in that, The chassis mechanical structure (2) also includes a connecting transmission component, a spline bearing assembly, and a transmission bearing assembly. The spline bearing assembly includes a spline shaft (28) and a spline bushing (29). The spline bushing (29) is disposed on the turbine housing (26) and sleeved on the spline shaft (28). The connecting transmission component (212) and the transmission bearing assembly (211) are disposed at one end of the spline shaft (28).

9. The multi-compartment mechanical side-standing mold according to claim 1, characterized in that, The support structure (31) is a hinge support rod, which includes a connecting rod and a support rod. A stabilizing block (35) is provided at the connection between the connecting rod and the support rod. A threaded structure is provided at the center of the stabilizing block (35), and the pull rod structure (34) is provided through the threaded structure.

10. The multi-compartment mechanical side-standing mold according to claim 9, characterized in that, The tie rod structure (34) is a threaded tie rod. A threaded sleeve (36) is provided at the center of the threaded tie rod. The threaded tie rods located at both ends of the threaded sleeve (36) are the first part of the threaded tie rod and the second part of the threaded tie rod, respectively. One end of the first part of the threaded tie rod and the second part of the threaded tie rod are both located inside the threaded sleeve (36), and the other end of the first part of the threaded tie rod and the second part of the threaded tie rod both pass through the stabilizing block (35).

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