Production mold, drawer type support and drawer type production device
By using gravity and mechanical or manual combination production molds, drawer brackets and drawer production devices in the production process of concrete components, the problems of large amount of brackets, slow demolding speed and strong equipment dependence in the existing processes are solved, and production efficiency and cost reduction are improved.
Patent Information
- Application Number
- CN202421768607.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-07-24
- Publication Date
- 2025-05-20
- Estimated Expiration
- 2034-07-24
AI Technical Summary
In the existing concrete component production process, there are problems such as large bracket usage, slow demolding speed and strong equipment dependence, resulting in low production efficiency, high cost and complex management.
A system including production molds, drawer brackets and drawer production devices is adopted to achieve easy flip and demolding of production molds through gravity and mechanical or manual coordination; the stacking of groove molds is achieved by using support tracks to reduce transportation and stacking processes; the brackets can move freely, reducing dependence on conveyor belts.
The operation steps are simplified, the work efficiency is improved, the equipment costs and maintenance costs are reduced, and the efficient stacking of groove molds and the rapid flipping and mold release of production molds are achieved.
Smart Images
Figure CN222886119U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of precast component production equipment, in particular to a production mold, a drawer-type support, and a drawer-type production device. Background Art
[0002] The existing concrete component production process mainly adopts a flat mold production method. The specific process is as follows: First, concrete is poured on the flat mold. After pouring is completed, the flat mold is placed on a special support through a conveyor belt and pushed into a curing device for steam curing. After a period of steam curing, when the concrete component reaches the specified strength standard, a flipping device is used to flip the production mold to achieve demolding.
[0003] In this production process, there are the following main problems and challenges: 1) Large consumption of supports: Since the flat mold needs to be frequently placed on a special support, a large number of supports need to be equipped throughout the production line. This not only increases the production cost but also occupies a relatively large production space. 2) Slow demolding speed: The existing demolding method mainly relies on a flipping device to flip the production mold and demolds by knocking. This method has low efficiency and affects the overall production speed. 3) Strong dependence on equipment: The entire production process highly depends on mechanical equipment such as conveyor belts and flipping devices. Equipment failures or maintenance will directly affect the production progress. In addition, the use and maintenance of these devices also increase the production cost and management complexity. In summary, although the existing flat mold production process meets the needs of concrete component production to a certain extent, there are still many areas that need to be improved urgently. In order to improve production efficiency, reduce equipment dependence, and lower production costs, it is necessary to optimize and improve the existing production device. Summary of the Utility Model
[0004] The purpose of the utility model is: Aiming at the above problems, the utility model provides a production mold, a drawer-type support, and a drawer-type production device. Through the cooperation of gravity and machinery or manual labor, the production mold can be easily flipped and demolded, simplifying the operation steps and improving work efficiency; through the support track, the stacking of trough-shaped molds can be realized, eliminating the processes of transporting and stacking trough-shaped molds during production; it can cooperate with the movement and pulling out of the production mold to achieve the flipping of the production mold by gravity.
[0005] The technical solution adopted by the utility model is as follows:
[0006] A production mold includes a trough-shaped mold, a main moving component, and a secondary moving component. The main moving component at least includes a pair of main moving members on both sides of the trough-shaped mold in the length direction. The secondary moving component at least includes a pair of secondary moving members relatively arranged on both sides of the trough-shaped mold in the length direction. The main moving members are arranged in the middle of the trough-shaped mold in the width direction, and the secondary moving members are arranged at the ends of the trough-shaped mold in the width direction. The length by which the main moving members on the same side protrude from the trough-shaped mold in the length direction is greater than the length by which the secondary moving members protrude from the trough-shaped mold in the length direction. The main moving component and the secondary moving component cooperate with each other so that the trough-shaped mold can move in the width direction of the trough-shaped mold.
[0007] Due to the adoption of the above technical solution, concrete is poured into the trough-shaped mold. After the pouring is completed, curing is carried out. After the curing is completed, demolding can be carried out to obtain a concrete member. During demolding, through the cooperation of the main moving component and the secondary moving component, the trough-shaped mold can be flipped around the main moving component by using gravity, which simplifies the operation steps of flipping and demolding and improves the work efficiency.
[0008] Furthermore, the main moving component is eccentrically arranged in the width direction of the trough-shaped mold towards the side away from the secondary moving component.
[0009] Due to the adoption of the above technical solution, the eccentric arrangement makes the center of gravity of the trough-shaped mold located on the side where the secondary moving component is located. After the side where the secondary moving component is located loses the load, it can be flipped downward by using gravity.
[0010] Furthermore, the bottom surfaces of the main moving members and the secondary moving members are both located on the first horizontal plane, and the second horizontal plane where the bottom surface of the trough-shaped mold is located is lower than the first horizontal plane in the height direction.
[0011] Furthermore, the trough-shaped mold includes a forming area and a slurry leakage area. The forming area is a trough-shaped structure with an upward opening. The bottom of the slurry leakage area is provided with hollow slurry leakage holes, and the slurry leakage area is adjacent to the forming area.
[0012] Due to the adoption of the above technical solution, during production, when scraping the concrete slurry on the surface of the trough-shaped mold, the excess concrete slurry falls through the slurry leakage holes, preventing the slurry from contaminating other components installed on the trough-shaped mold.
[0013] Furthermore, for the production mold, the trough-shaped mold includes a bottom plate, length end plates disposed on both sides in the width direction of the bottom plate, and width end plates disposed on both sides in the width direction of the bottom plate. The length end plates and the width end plates enclose a frame structure, and the bottom plate, the length end plates, and the width end plates cooperate with each other to form a trough-shaped structure. The bottom end of the length end plate is connected to the bottom plate, and the top end is bent outward to form a flange; it further includes a reinforcing member matching the length end plate. The reinforcing member is a strip-shaped folded plate structure. One side of the reinforcing member is connected to the bottom end of the length end plate, the bent part is connected to the outward extension side of the flange, and the other side extends upward above the flange. The reinforcing member and the length end plate cooperate with each other to form a triangular support structure in cross section.
[0014] Due to the adoption of the above technical solution, by the cooperation of the reinforcing member and the flange, the stiffness of the trough-shaped mold is increased.
[0015] A drawer-type bracket includes a support frame. The support frame includes vertical rods arranged along the Z-axis direction and support rails arranged along the Y-axis direction. Pairs of vertical rods are arranged at intervals along the Y-axis direction. Both ends in the length direction of the support rails are respectively connected to the two vertical rods. A plurality of the support rails are arranged at intervals along the Z-axis direction. One side of the support rail protrudes along the X-axis direction from the vertical rod and forms the inner side of the support frame; Pairs of the two support frames are arranged at intervals along the X-axis direction, and the inner sides of the pairs of the two support frames are arranged opposite to each other.
[0016] Due to the adoption of the above technical solution, through the support rails, the stacking of the trough-shaped molds can be realized, eliminating the processes of transporting and stacking the trough-shaped molds during the production process; it can cooperate with the pulling out of the production mold to realize the gravity flipping of the production mold.
[0017] Furthermore, a load-bearing stabilizer for supporting the production mold is provided on one side in the length direction of the support rail. One side of the load-bearing stabilizer is connected to the production end of the support rail, and the other side extends along the X-axis direction towards the inner side of the support frame.
[0018] Furthermore, it further includes an X-axis connecting member arranged along the X-axis direction. The pairs of the two support frames are respectively connected to both ends in the length direction of the X-axis connecting member.
[0019] Furthermore, a plurality of rollers are provided at the bottom of the X-axis connecting member and / or the support frame.
[0020] Due to the adoption of the above technical solution, it is convenient to move the drawer-type bracket.
[0021] A drawer-type production device includes a production mold and a drawer-type support. The production mold includes a trough-shaped mold, a main moving component, and a secondary moving component. The main moving component at least includes a pair of main moving members on both sides of the trough-shaped mold in the length direction. The secondary moving component at least includes a pair of secondary moving members relatively arranged on both sides of the trough-shaped mold in the length direction. The main moving members are arranged in the middle of the trough-shaped mold in the width direction, and the secondary moving members are arranged at the ends of the trough-shaped mold in the width direction. The drawer-type support includes a support frame. The support frame includes vertical rods arranged along the Z-axis direction and support rails arranged along the Y-axis direction. The pair of vertical rods are arranged at intervals along the Y-axis direction. Both ends of the support rail in the length direction are connected to the two vertical rods respectively. One end of the support rail corresponding to the secondary moving component is the demolding end, and the side corresponding to the side without the secondary moving member is the production end. The width of the trough-shaped mold is d1, and the distance from the side of the trough-shaped mold without the secondary moving member to the side of the main moving member close to the secondary moving member is d2. The length of the support rail is greater than twice d1. The main moving component is eccentrically arranged along the width direction of the trough-shaped mold toward the side away from the secondary moving component. A plurality of the support rails are arranged at intervals along the Z-axis direction. The lowest height of the support rail is greater than the difference between d1 and d2. One side of the support rail protrudes along the X-axis direction from the vertical rod and forms the inner side of the support frame. The pair of support frames are arranged at intervals along the X-axis direction, and the distance between the pair of support frames is greater than the length of the trough-shaped mold. The inner sides of the pair of support frames are arranged opposite to each other. The main moving members and the secondary moving members both extend outward along the X-axis direction from the trough-shaped mold and match the corresponding support rails. The main moving member coincides with the corresponding vertical rod in the X-axis direction, and the secondary moving member is spaced from the corresponding vertical rod in the X-axis direction.
[0022] Due to the adoption of the above technical solution, the production molds can be stacked and placed at the demolding end of the drawer-type support. During pouring, the bottommost production mold is moved to the production end, and then processes such as pouring, vibrating, and scraping of concrete components are carried out. The above processes are repeated to complete the pouring of all production molds from bottom to top. When demolding is required, the production mold can be moved to the demolding end, and the secondary moving component is pulled out of the drawer-type support, while the main moving member is restricted within the drawer-type support by the vertical rod. Taking the axis of the main moving member as the rotation axis, the production mold is flipped to 90° by using gravity, perpendicular to the ground, and then through machinery or manually, the production mold can be easily flipped to 180° for demolding. After demolding is completed, the production mold is reset to achieve cyclic production.
[0023] Further, a load-bearing stabilizer for supporting the production mold is provided on one side of the support rail in the length direction. One side of the load-bearing stabilizer is connected to the production end of the support rail, and the other side extends along the X-axis direction toward the inner side of the support frame. The load-bearing stabilizer can match the side of the production mold without the secondary moving component. The load-bearing stabilizer, the main moving component, and the secondary moving component can cooperate with each other to keep the trough-shaped mold horizontal.
[0024] Due to the adoption of the above technical solution, the load-bearing stabilizer is used to place the production mold, ensuring the stability of the production mold during production.
[0025] In summary, due to the adoption of the above technical solution, the beneficial effects of the present utility model are as follows:
[0026] 1. For traditional molds, flipping and demolding usually require mechanical equipment driven by electricity. However, in the present utility model, through the cooperation of gravity and equipment or manual labor that does not require electric drive, the flipping equipment that requires electric drive is eliminated, saving energy consumption. The production mold can be easily flipped and demolded, simplifying the operation steps and improving work efficiency.
[0027] 2. The drawer-type support of the present utility model can move freely, reducing the dependence on the conveyor belt in the traditional production process, thereby reducing equipment costs and maintenance costs.
[0028] 3. In the present utility model, through the support track, stacking of the trough-shaped mold can be realized, eliminating the processes of transporting and stacking the trough-shaped mold during production; it can cooperate with the movement and pulling out of the production mold to realize the gravity flipping of the production mold.
[0029] 4. The stiffness of the two side flanges of the trough-shaped mold of the present utility model is increased through the strengthening member, and the design of the end plate further enhances the stability of the production mold, ensuring the stability and durability of the production mold during production.
[0030] 5. The stiffness of the two side flanges of the trough-shaped mold of the present utility model is increased through the strengthening strip, and the design of the end plate further enhances the stability of the production mold, ensuring the stability and durability of the production mold during production.
[0031] 6. The components included in the drawer-type production device can be connected by detachable connection methods such as bolts, and the disassembly and assembly between components are convenient. The components can be transported to the project location for assembly, effectively saving transportation costs. Description of the Drawings
[0032] Figure 1 is the structural schematic diagram of the production mold of the present utility model;
[0033] Figure 2 is the exploded view of the production mold of the present utility model;
[0034] Figure 3 is the sectional view of the production mold of the present utility model;
[0035] Figure 4 is the side view of the production mold of the present utility model;
[0036] Figure 5It is a schematic structural view of the drawer - type bracket of the present utility model;
[0037] Figure 6 It is a schematic structural view of the support frame of the present utility model;
[0038] Figure 7 It is a schematic structural view of the production mold of the present utility model flipping on the drawer - type bracket;
[0039] Figure 8 It is a schematic structural view of the load - bearing stabilizer of the present utility model matching with the production mold;
[0040] Figure 9 It is a schematic structural view of the secondary moving member of the present utility model disengaging from the support track;
[0041] Figure 10 It is a schematic structural view of the secondary moving member of the present utility model matching with the support track;
[0042] Figure 11 It is a schematic structural view of the main moving member of the present utility model matching with the support track;
[0043] Figure 12 It is a schematic structural view of the production mold of the present utility model being limited in the X - axis direction by rollers;
[0044] Figure 13 It is a schematic structural view of the production mold of the present utility model being limited in the X - axis direction by balls.
[0045] Markings in the figure: 1 - drawer - type bracket, 101 - Y - axis connecting piece, 102 - vertical rod, 103 - X - axis connecting piece, 104 - support track, 105 - load - bearing stabilizer, 106 - roller, 2 - production mold, 201 - trough - shaped mold, 202 - strengthening member, 203 - width end plate, 204 - baffle, 205 - slurry leakage hole, 206 - main moving member, 207 - secondary moving member, 208 - flange, 209 - side roller, 210 - ball. Detailed implementation manners
[0046] The following will explain the present utility model in detail with reference to the accompanying drawings.
[0047] In order to make the purpose, technical solutions and advantages of the present utility model clearer, the following further details the present utility model with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present utility model and are not used to limit the present utility model.
[0048] Embodiment 1
[0049] A production mold, as Figures 1-4As shown, it includes a grooved mold 201, a main moving component and a secondary moving component. The main moving component at least includes a pair of main moving members 206 on both sides of the grooved mold 201 in the length direction. The secondary moving component at least includes a pair of secondary moving members 207 relatively arranged on both sides of the grooved mold 201 in the length direction. The main moving member 206 is arranged in the middle of the grooved mold 201 in the width direction, and the secondary moving member 207 is arranged at the end of the grooved mold 201 in the width direction. The length by which the main moving member 206 on the same side protrudes from the grooved mold 201 along the length direction of the grooved mold 201 is greater than the length by which the secondary moving member 207 protrudes from the grooved mold 201 along the length direction of the grooved mold 201. The main moving component and the secondary moving component cooperate with each other so that the grooved mold 201 can move in the width direction of the grooved mold 201.
[0050] Specifically, concrete is poured into the grooved mold 201. After the pouring is completed, curing is carried out. After the curing is completed, demolding can be carried out to obtain a concrete component. During demolding, through the cooperation of the main moving component and the secondary moving component, the grooved mold 201 can be flipped by gravity around the main moving component, which simplifies the operation steps of flipping and demolding and improves work efficiency.
[0051] The main moving component is eccentrically arranged along the width direction of the grooved mold 201 toward the side away from the secondary moving component.
[0052] Specifically, the eccentric arrangement makes the center of gravity of the grooved mold 201 located on the side where the secondary moving component is located, and it can be flipped downward by gravity after the load on the side where the secondary moving component is located is removed.
[0053] The bottom surfaces of the main moving member 206 and the secondary moving member 207 are both located on the first horizontal plane, and the second horizontal plane where the bottom surface of the grooved mold 201 is located is lower than the first horizontal plane in the height direction.
[0054] The grooved mold 201 includes a forming area and a slurry leakage area. The forming area is a grooved structure with an upward opening. The bottom of the slurry leakage area is provided with hollow slurry leakage holes 205, and the slurry leakage area is adjacent to the forming area.
[0055] Specifically, during production, when scraping the concrete slurry on the surface of the grooved mold 201, the excess concrete slurry falls through the slurry leakage holes 205, preventing the slurry from contaminating other components installed on the grooved mold 201. Preferably, the slurry leakage area is located on both sides of the forming area in the length direction, and the slurry leakage area and the forming area are separated by baffles 204. The length of the produced concrete component can be adjusted by controlling the distance between the two baffles 204. The baffle 204 can be a flat plate, or an arc plate or a special-shaped plate according to the shape requirements of the concrete component. The length and shape of the concrete component can also be adjusted by adjusting the position of the baffle 204, increasing the number of baffles 204, replacing the baffle 204, etc.
[0056] The production mold 2 described above, the trough-shaped mold 201 includes a bottom plate, length end plates arranged on both sides in the width direction of the bottom plate, and width end plates 203 arranged on both sides in the width direction of the bottom plate. The length end plates and the width end plates 203 enclose to form a frame structure. The bottom plate, the length end plates, and the width end plates 203 cooperate with each other to form a trough-shaped structure. The bottom end of the length end plate is connected to the bottom plate, and the top end is bent outward to form a flange 208. The flange 208 remains horizontal. The bottom plate and the two length end plates can be flat plates, or can be arc-shaped plates or special-shaped plates according to the shape requirements of concrete components. It also includes a reinforcing member 202 matching the length end plate. The reinforcing member 202 is a strip-shaped folded plate structure. One side of the reinforcing member 202 is connected to the bottom end of the length end plate, bent and connected to the outward extension side of the flange 208, and the other side extends above the flange 208. The reinforcing member 202 and the length end plate cooperate with each other to form a support structure with a triangular cross-section. Specifically, through the cooperation of the reinforcing member 202 and the flange 208, the stiffness of the trough-shaped mold 201 is increased. The slurry leakage holes 205 are arranged on the bottom plate. The bottom plate and the length end plate are integrally formed into a mold substrate. The length of the width end plate 203 is the same as the total width after the combination of the mold substrate and the reinforcing member 202, and the height of the width end plate 203 is the same as the total height after the combination of the mold substrate and the reinforcing member 202. The width end plate 203 is used to close the mold substrate and enhance the stability of the flange 208. The reinforcing member 202 can be made of other materials with high stiffness such as angle steel. The main moving assembly and the secondary moving assembly are connected to the width end plate 203. The main moving member 206 includes a main moving shaft and a main bearing. The axis of the main moving shaft is vertically connected to the width end plate 203, and the main bearing is rotatably connected to the main moving shaft. In this embodiment, preferably two main bearings can be provided for each main moving member 206. It can be understood that the number of main bearings is determined according to requirements, and it is advisable to have no less than two. Other numbers of main bearings also fall within the protection scope of this application. The secondary moving member 207 includes a secondary moving shaft and a secondary bearing. The axis of the secondary moving shaft is vertically connected to the width end plate 203, and the secondary bearing is rotatably connected to the secondary moving shaft. In this embodiment, preferably one secondary bearing can be provided for each secondary moving member 207. It can be understood that the number of secondary bearings is determined according to requirements, and it is advisable to have one. Other numbers of secondary bearings also fall within the protection scope of this application. The secondary moving shaft should be arranged at a position on the same horizontal line as the main moving shaft in the vertical direction.
[0057] Embodiment 2
[0058] A drawer-type bracket, such as Figure 5 、 Figure 6As shown in the figure, it includes a support frame. The support frame includes vertical rods 102 arranged along the Z-axis direction and support rails 104 arranged along the Y-axis direction. Pairs of vertical rods 102 are arranged at intervals along the Y-axis direction, and the bottom ends are connected by Y-axis connectors 101. The two ends of the length direction of the support rail 104 are respectively connected to the two vertical rods 102. A number of the support rails 104 are arranged at intervals along the Z-axis direction. One side of the support rail 104 protrudes along the X-axis direction from the vertical rod 102 and forms the inner side of the support frame. Pairs of two support frames are arranged at intervals along the X-axis direction, and the inner sides of the pairs of two support frames are arranged opposite to each other.
[0059] Specifically, through the support rail 104, the stacking of the trough-shaped molds 201 can be realized, eliminating the processes of transporting and stacking the trough-shaped molds 201 during the production process; it can cooperate with the movement and pulling out of the production mold 2 to realize the gravity flipping of the production mold 2.
[0060] One side of the length direction of the support rail 104 is provided with a load-bearing stabilizer 105 for supporting the production mold 2. One side of the load-bearing stabilizer 105 is connected to the production end of the support rail 104, and the other side extends along the X-axis direction towards the inner side of the support frame.
[0061] It also includes an X-axis connector 103 arranged along the X-axis direction. Pairs of two support frames are respectively connected to the two ends of the length direction of the X-axis connector 103. The two ends of the X-axis connector 103 are respectively connected to the Y-axis connectors 101 of the two support frames.
[0062] Two rollers 106 are respectively arranged on both sides of the bottom plate of each Y-axis connector 101 along the Y-axis direction for the movement of the drawer-type bracket 1.
[0063] Embodiment 3
[0064] A drawer-type production device, as Figures 1-11As shown in the figure, it includes a production mold 2 and a drawer - type support 1. The production mold 2 includes a trough - shaped mold 201, a main moving component, and a secondary moving component. The main moving component at least includes a pair of main moving members 206 on both sides of the trough - shaped mold 201 in the length direction. The secondary moving component at least includes a pair of secondary moving members 207 relatively arranged on both sides of the trough - shaped mold 201 in the length direction. The main moving member 206 is arranged in the middle of the trough - shaped mold 201 in the width direction, and the secondary moving member 207 is arranged at the end of the trough - shaped mold 201 in the width direction. The drawer - type support 1 includes a support frame. The support frame includes vertical rods 102 arranged along the Z - axis direction and support rails 104 arranged along the Y - axis direction. A pair of vertical rods 102 are arranged at intervals along the Y - axis direction. Both ends of the support rail 104 in the length direction are respectively connected to the two vertical rods 102. One end of the support rail 104 corresponding to the secondary moving component is the demolding end, and the side corresponding to the side without the secondary moving member 207 is the production end. The width of the trough - shaped mold 201 is d1, and the distance from the side of the trough - shaped mold 201 without the secondary moving member 207 to the side of the main moving member 206 close to the secondary moving member 207 is d2. The length of the support rail 104 is greater than twice of d1, ensuring that the production mold 2 stacked at the production end can be moved to the demolding end for flipping without affecting other production molds 2 at the production end. The main moving component is eccentrically arranged along the width direction of the trough - shaped mold 201 towards the side away from the secondary moving component, as Figure 9 shown in the figure, point A is the center point of the width end plate 203, and this center point is located on the center - of - gravity line of the trough - shaped mold 201 in the length direction. A plurality of the support rails 104 are arranged at intervals along the Z - axis direction. The lowest height of the support rail 104 is greater than the difference between d1 and d2, so that after the secondary moving component is pulled out of the drawer - type support 1 from the demolding end, the film production mold can be flipped downward under the action of gravity due to the eccentric arrangement. One side of the support rail 104 protrudes along the X - axis direction from the vertical rod 102 and forms the inner side of the support frame. A pair of support frames are arranged at intervals along the X - axis direction, and the distance between the pair of support frames is greater than the length of the trough - shaped mold 201. The inner sides of the pair of support frames are arranged oppositely. The main moving member 206 and the secondary moving member 207 both extend outward along the X - axis direction from the trough - shaped mold 201 and match the corresponding support rail 104. The main moving member 206 coincides with the corresponding vertical rod 102 in the X - axis direction, and the secondary moving member 207 is spaced from the corresponding vertical rod 102 in the X - axis direction.
[0065] Specifically, the production molds 2 can be stacked and placed at the demolding end of the drawer-type support 1. During pouring, the lowermost production mold 2 is moved to the production end, and then processes such as pouring, vibrating, and leveling of concrete components are carried out. The above processes are repeated to complete the pouring of all production molds 2 from bottom to top. After the concrete pouring of all production molds 2 is completed, the drawer-type production device is pushed to the curing area for steam curing or natural curing. After curing and when the concrete components reach the specified strength, demolding can be carried out. During demolding, the production mold 2 can be moved to the demolding end, and the secondary moving assembly is pulled out of the drawer-type support 1, while the main moving member 206 is restricted within the drawer-type support 1 by the vertical rod 102. With the axis of the main moving member 206 as the rotation axis, the production mold 2 is flipped to 90° by using gravity, perpendicular to the ground. Then, through machinery or manually, the production mold 2 can be easily flipped to 180° for demolding. After demolding is completed, the production mold 2 is reset, and the production mold 2 is cleaned to achieve cyclic production.
[0066] On one side in the length direction of the support rail 104, a load-bearing stabilizer 105 for supporting the production mold 2 is provided. One side of the load-bearing stabilizer 105 is connected to the production end of the support rail 104, and the other side extends towards the inside of the support frame along the X-axis direction. The load-bearing stabilizer 105 can match the side of the production mold 2 without the secondary moving assembly. The load-bearing stabilizer 105, the main moving assembly, and the secondary moving assembly can cooperate with each other to keep the trough-shaped mold 201 horizontal.
[0067] Specifically, the load-bearing stabilizer 105 is used to place the production mold 2 to ensure the stability of the production mold 2 when it is at the production end.
[0068] The production mold 2 can be removed from the drawer-type support 1 to replace different specifications. If the height of the production mold 2 is less than the interval between two adjacent support rails 104, the production molds 2 can be arranged layer by layer according to the support rails 104. If the height of the production mold 2 is greater than the interval between two adjacent support rails 104, the production molds 2 can be arranged in a way of every other layer.
[0069] The components included in the drawer-type production device provided in this embodiment can be connected by detachable connection methods such as bolts. Moreover, the disassembly and assembly between components are convenient. The components can be transported to the project location for assembly, which can effectively save transportation costs.
[0070] Embodiment 4
[0071] Embodiment 4 provides a drawer-type production device, which is an improvement on Embodiment 3. For further illustration, the same components will not be elaborated here, such as Figure 12As shown, a number of side rollers 209 that can abut against the side walls of the corresponding side support rails 104 are provided on the width end plate 203. The displacement of the production mold 2 in the X-axis direction can be restricted through the side rollers 209, ensuring a gap between the grooved mold 201 and the support rail 104, and avoiding friction between the grooved mold 201 and the support rail 104 during movement.
[0072] Embodiment 5
[0073] Embodiment 5 provides a drawer-type production device, which is an improvement on Embodiment 3. For further illustration, the same components will not be described again here. As Figure 13 As shown, a limiting structure is provided on the outer side of the support frame, and a ball 210 that can be rollingly connected to the limiting structure is provided at the end of the main moving shaft. The displacement of the production mold 2 in the X-axis direction can be restricted by matching the ball 210 with the limiting structure, ensuring a gap between the grooved mold 201 and the support rail 104, and avoiding friction between the grooved mold 201 and the support rail 104 during movement.
[0074] In this article, specific embodiments are used to elaborate on the principles and implementation manners of the present utility model. The descriptions of the above embodiments are only used to help understand the method and its core idea of the present utility model. It should be noted that for those of ordinary skill in the art, without departing from the principle of the present utility model, several improvements and modifications can be made to the present utility model, and these improvements and modifications also fall within the protection scope of the claims of the present utility model.
[0075] In the description of the present utility model, it should be noted that the orientation or positional relationship indicated by the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", etc. is based on the orientation or positional relationship shown in the drawings, or the orientation or positional relationship in which the product of this utility model is usually placed during use. It is only for the convenience of describing the present utility model and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation to the present utility model.
[0076] In the description of the present utility model, it should also be noted that unless otherwise clearly specified and defined, the terms "set", "installed", "connected", "connected" should be understood in a broad sense. For example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be directly connected, or indirectly connected through an intermediate medium, and it can be the communication inside two elements. For those of ordinary skill in the art, the specific meanings of the above terms in the present utility model can be understood according to specific situations.
Claims
1. A production mold, characterized in that: It includes a slot mold, a main movable assembly and a secondary movable assembly, wherein the main movable assembly at least includes a pair of main movable components on both sides of the length direction of the slot mold, and the secondary movable assembly at least includes a pair of secondary movable components on both sides of the length direction of the slot mold, the main movable component is arranged in the middle of the width direction of the slot mold, and the secondary movable component is arranged at the end of the width direction of the slot mold, the length of the main movable component on the same side protruding from the slot mold along the length direction of the slot mold is greater than the length of the secondary movable component protruding from the slot mold along the length direction of the slot mold; the main movable assembly and the secondary movable assembly cooperate with each other to enable the slot mold to move along the width direction of the slot mold.
2. The production mold according to claim 1, characterized in that: The main movable component is eccentrically arranged along the width direction of the slot-shaped mold toward the side away from the secondary movable component.
3. The production mold according to claim 2, characterized in that: The bottom surfaces of the main movable member and the secondary movable member are both located at a first horizontal plane, and the second horizontal plane where the bottom surface of the groove-shaped mold is located is lower than the first horizontal plane in the height direction.
4. The production mold according to any one of claims 1 to 3, characterized in that: The groove-shaped mold comprises a forming area and a slurry leakage area. The forming area is a groove-shaped structure with an opening upward. A hollow slurry leakage hole is arranged at the bottom of the slurry leakage area. The slurry leakage area is adjacent to the forming area.
5. The production mold according to any one of claims 1 to 3, characterized in that: The production mold, the groove-type mold includes a base plate, length end plates arranged on both sides of the base plate in the width direction, and width end plates arranged on both sides of the base plate in the width direction, the length end plates and the width end plates are combined to form a frame structure, the base plate, the length end plates, and the width end plates cooperate with each other to form a groove-type structure, the bottom end of the length end plate is connected to the base plate, and the top end is bent outward to form a flange; it also includes a reinforcing member matching the length end plate, the reinforcing member is a strip-shaped folded plate structure, one side of the reinforcing member is connected to the bottom end of the length end plate, the bend is connected to the outward extending side of the flange, and the other side extends above the flange, the reinforcing member and the length end plate cooperate with each other to form a support structure with a triangular cross-section.
6. A drawer-type bracket, characterized in that: It includes a support frame, which includes vertical poles arranged along the Z-axis direction and support rails arranged along the Y-axis direction. The pairs of vertical poles are arranged at intervals along the Y-axis direction, and the two ends of the support rails in the length direction are respectively connected to the two vertical poles. A plurality of the support rails are arranged at intervals along the Z-axis direction, and one side of the support rails protrudes from the vertical poles along the X-axis direction and forms the inner side of the support frame; the two pairs of support frames are arranged at intervals along the X-axis direction, and the inner sides of the two pairs of support frames are arranged opposite to each other.
7. The drawer-type bracket according to claim 6, characterized in that: A bearing stabilizing member for supporting the production mold is provided on one side of the support track in the length direction. One side of the bearing stabilizing member is connected to the production end of the support track, and the other side extends toward the inner side of the support frame along the X-axis direction.
8. The drawer-type support according to claim 6 or 7, characterized in that: It also includes an X-axis connecting member arranged along the X-axis direction, and two pairs of supporting frames are respectively connected to the two ends of the length direction of the X-axis connecting member, and a plurality of rollers are arranged at the bottom of the X-axis connecting member and / or the supporting frame.
9. A drawer-type production device, characterized in that: The invention comprises a production mold and a drawer-type bracket, wherein the production mold comprises a slot mold, a main moving assembly and a secondary moving assembly, wherein the main moving assembly at least comprises a pair of main moving components on both sides of the length direction of the slot mold, and the secondary moving assembly at least comprises a pair of secondary moving components on both sides of the length direction of the slot mold, wherein the main moving component is arranged in the middle of the width direction of the slot mold, and the secondary moving component is arranged at the end of the width direction of the slot mold; the drawer-type bracket comprises a supporting frame, wherein the supporting frame comprises vertical rods arranged along the Z-axis direction and supporting rails arranged along the Y-axis direction, wherein the pairs of vertical rods are arranged at intervals along the Y-axis direction, and the two ends of the supporting rails in the length direction are respectively connected to the two vertical rods, and the end of the supporting rail corresponding to the secondary moving assembly is a demoulding end, and the side corresponding to no secondary moving component is a production end, the width of the slot mold is d1, and the slot mold has no secondary moving component. The distance from one side of the movable component to the side of the main movable component close to the secondary movable component is d2, the length of the support track is greater than twice d1, the main movable component is eccentrically arranged along the width direction of the slot mold toward the side away from the secondary movable component, and a plurality of the support tracks are arranged at intervals along the Z-axis direction, and the lowest height of the support track is greater than the difference between d1 and d2; one side of the support track protrudes from the vertical pole along the X-axis direction and forms the inner side of the support frame; the two paired support frames are spaced apart along the X-axis direction, and the spacing between the two paired support frames is greater than the length of the slot mold, and the inner sides of the two paired support frames are arranged oppositely; the main movable component and the secondary movable component both extend toward the outside of the slot mold along the X-axis direction and match the support tracks on the corresponding sides, the main movable component coincides with the vertical pole on the corresponding side in the X-axis direction, and the secondary movable component is spaced apart from the vertical pole on the corresponding side in the X-axis direction.
10. The drawer-type production device according to claim 9, characterized in that: A load-bearing stabilizer for supporting the production mold is provided on one side of the length direction of the support rail, one side of the load-bearing stabilizer is connected to the production end of the support rail, and the other side extends toward the inner side of the support frame along the X-axis direction. The load-bearing stabilizer can match the side of the production mold without a secondary moving component, and the load-bearing stabilizer, the main moving component and the secondary moving component can cooperate with each other to keep the groove-type mold level.