Production equipment for energy-saving sound-absorbing environment-friendly light interior wall partition plate

Abstract

The invention discloses production equipment of an energy-saving sound-absorbing environment-friendly light interior wall partition plate, and relates to the technical field of production of interior wall partition plates. The production equipment of the energy-saving type sound-absorbing environment-friendly light interior wall partition plate comprises a main mold which is assembled in a split mode, at least one set of pouring channels are formed after assembling is finished, bottom molds are arranged at the bottoms of the pouring channels, the bottom molds and the main mold are assembled to form an interior wall partition plate pouring mold, and a demolding assembly is used for driving the main mold to move one by one. And the inner wall partition plate moves relatively to be separated and demolded. After the inner wall partition plate is poured and formed, the main mold can be driven one by one by the demolding assembly to generate relative shearing movement with the inner wall partition plate one by one in a split demolding state, the demolding resistance is small, demolding is more convenient, meanwhile, the relative shearing movement is achieved, and the demolding efficiency is improved. And the inner wall partition plate is only stressed in the vertical direction, so that the horizontal adhesion tearing force acting on the inner wall partition plate is smaller, and the demolding of the inner wall partition plate is more perfect.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of interior wall partition production, in particular to a production equipment of an energy-saving sound-absorbing environment-friendly light interior wall partition. BACKGROUND

[0002] As an important wall component in building engineering, the core function of the interior wall partition is to divide indoor space, has the properties of enclosure and function, has the advantages of light weight, high efficiency, multifunction, etc., and meets the demand of modern buildings for space utilization and construction efficiency. The interior wall partition is generally prefabricated in a modular manner. After mixing raw materials such as cement, water and foaming agent, foaming, pouring and curing, the interior wall partition is formed. When the interior wall partition is poured and formed, a mold forming method is generally used to pour and form the interior wall partition in a modular manner.

[0003] In the Chinese patent with publication number CN118596312B, a production device of a light interior wall partition is disclosed. After the interior wall partition is poured and formed, the opening and closing assembly drives the movable side mold to open and close, and simultaneously drives the demolding member to work synchronously, so that the partition plate can be separated from the light interior wall partition when the mold is opened. The overall demolding step is reduced, and the demolding efficiency is improved.

[0004] During the pouring and forming process of the interior wall partition, improper use of the demolding agent (uneven brushing, insufficient amount), concrete pouring and vibrating (concrete is too compact, the side pressure of the mold increases, and the contact with the mold after forming is more compact) and other reasons can easily cause the interior wall partition and the mold to be tightly bonded, causing demolding difficulty. The existing integrated demolding method not only has large demolding resistance, but also easily causes damage to the surface of the interior wall partition due to the bonding effect during the demolding process, resulting in poor demolding forming quality. SUMMARY

[0005] In view of the deficiencies of the prior art, the present application provides a production equipment of an energy-saving sound-absorbing environment-friendly light interior wall partition, which solves the problems raised in the background art.

[0006] To achieve the above purpose, the following technical scheme is adopted: a production equipment of an energy-saving sound-absorbing environment-friendly light interior wall partition, comprising: a main mold, which is assembled in a split type and forms at least one pouring channel after assembly; a bottom mold, which is arranged at the bottom of each pouring channel and is combined with the main mold to form an interior wall partition pouring mold; and a demolding assembly, which is used to drive the main mold to move one by one, relatively move and separate from the interior wall partition, and drive the bottom mold to move along the pouring channel to push out the interior wall partition after the demolding of the main mold is completed.

[0007] Further, the demolding assembly comprises: first lead screws arranged in a split mode on at least one side of the main mold, wherein two adjacent groups of first lead screws are rotatably connected through first bearing sleeves, and the first lead screws are axially provided with first sliding tables connected with the main mold; the first lead screws further form first cavities inside, and the inner walls of the first cavities are provided with spline tooth sleeves; a second driving shaft is arranged in the first cavities and is axially slidably provided with a spline shaft which is engaged with the spline tooth sleeve to drive the first lead screws to rotate; the second driving shaft further forms a second cavity inside; and a second lead screw is arranged in the second cavity and is axially provided with a second sliding table, wherein the second sliding table is rotatably connected with the spline shaft to generate a driving force to drive the spline shaft to move to different first cavities and to drive the corresponding first lead screws to rotate.

[0008] Further, the demolding assembly further comprises: a top support structure arranged below each group of bottom molds; a third driving shaft arranged on one side of the top support structure, wherein the third driving shaft forms a spiral sliding groove; and a sliding sleeve arranged on the third driving shaft and connected with the top support structure, wherein the sliding sleeve is internally provided with a spiral sliding buckle which can slide along the spiral sliding groove to generate a driving force acting on the top support structure.

[0009] Further, the demolding assembly further comprises: a first driving shaft arranged on one side of the second driving shaft and the second lead screw and connected with the second driving shaft and the second lead screw through a second bevel gear pair; and a driven gear arranged in the middle of the first driving shaft and connected with the first driving shaft through a first bevel gear pair.

[0010] Further, the demolding assembly further comprises: a driving gear arranged in the middle of the third driving shaft and connected with the third driving shaft through a third bevel gear pair; and a driven gear ring arranged on the rotation path of the driving gear, wherein the inner ring of the driven gear ring is provided with a driving rack which is arranged in a staggered mode and sequentially engaged with the driving gear.

[0011] Further, the demolding assembly further comprises: a driving gear arranged between the driven gear and the driven gear ring; a motor arranged on one side of the driving gear, wherein the motor and the driving gear are connected through a first transmission belt; a reciprocating swing arm arranged on the output shaft of the motor and connected with the driving gear at the other end; and a rotary air cylinder arranged above the reciprocating swing arm to drive the reciprocating swing arm to swing, so that the driving gear is sequentially engaged with the driven gear and the driven gear ring to generate a driving force to drive the main mold and the bottom mold to move.

[0012] Further, the inner ring of the spline shaft is provided with a track sliding table which is rotatably connected with the second sliding table through a second bearing sleeve; and the second driving shaft is axially provided with a track sliding groove for the track sliding table to slide;

[0013] Further, the top support structure is arranged in pairs of symmetry to drive the bottom mold to move along the pouring channel, wherein the top support structure comprises a guide rail arranged below the bottom mold, a rack slidingly installed on the track of the guide rail, one end of the rack being provided with a guide rod, wherein the guide rod is fixedly connected with the sliding sleeve, and a sector gear arranged on the moving track of the rack and engaged with the rack, wherein the sector gear is provided with a top support arm connected with the bottom mold.

[0014] Further, the middle part of the main mold is staggered from the pouring channel to form a ventilation hole.

[0015] Further, a tapered groove is formed at the lower end of the main mold, and a tapered boss is arranged at the upper end of the main mold, and the tapered groove is fitted with the tapered boss.

[0016] The present application has the following advantages:

[0017] (1) The production equipment of the energy-saving sound-absorbing environment-friendly lightweight inner wall partition plate can drive the main mold to move relative to the inner wall partition plate in a split demolding state after the inner wall partition plate is poured and formed, which has smaller demolding resistance and is more convenient to demold. The relative shearing movement between the main mold and the inner wall partition plate only has a vertical stress between them, and the horizontal adhesion tearing force acting on the inner wall partition plate is smaller, so that the demolding of the inner wall partition plate is more perfect.

[0018] (2) After the main mold is demolded, the production equipment of the energy-saving sound-absorbing environment-friendly lightweight inner wall partition plate can drive the bottom mold to move, so that the inner wall partition plate can be pushed out of the mold after the main mold and the inner wall partition plate are demolded, which is convenient for taking out the inner wall partition plate and reduces the difficulty of taking out the inner wall partition plate. When the inner wall partition plate is pushed out, the bottom mold can move relative to the main mold to scrape and collect the residual demolding agent and concrete residues in the mold cavity, ensuring the cleanliness of the mold cavity and reducing the difficulty of subsequent cleaning.

[0019] (3) The production equipment of the energy-saving sound-absorbing environment-friendly lightweight inner wall partition plate can move the main mold and the bottom mold through the demolding assembly, so that after the inner wall partition plate is demolded and taken out, it only needs to be reset to form a pouring mold again without the need for overall disassembly, which is more convenient to use and conducive to the continuous pouring and forming of the inner wall partition plate.

[0020] Of course, any product implementing the present application does not necessarily need to achieve all the advantages described above. BRIEF DESCRIPTION OF DRAWINGS

[0021] Figure 1 is a structural schematic view of the present application;

[0022] Figure 2 is a bottom view of the present application;

[0023] Figure 3 is a first expanded schematic diagram of the main mold in the present application;

[0024] Figure 4 is a second expanded schematic diagram of the main mold in the present application;

[0025] Figure 5 is a first driving source schematic diagram of the demolding assembly in the present application;

[0026] Figure 6 is a second driving source schematic diagram of the demolding assembly in the present application;

[0027] Figure 7 is a demolding driving schematic diagram of the main mold in the present application;

[0028] Figure 8 is an assembly schematic diagram of the first screw rod in the present application;

[0029] Figure 9 is a driving schematic diagram of the first screw rod in the present application;

[0030] Figure 10 is an assembly diagram of the second screw rod in the present application;

[0031] Figure 11 is a driving schematic diagram of the second screw rod in the present application;

[0032] Figure 12 are a, b, c, d in the present application, respectively, are demolding change state diagrams of the main mold;

[0033] Figure 13 is an arrangement schematic diagram of the bottom mold in the present application;

[0034] Figure 14 is a first demolding driving schematic diagram of the bottom mold in the present application;

[0035] Figure 15 is a second demolding driving schematic diagram of the bottom mold in the present application;

[0036] Figure 16 is a demolding driving plan view of the bottom mold in the present application;

[0037] Figure 17 is a structure schematic diagram of the top support structure in the present application;

[0038] Figure 18 is a top support driving schematic diagram of the top support structure in the present application;

[0039] Figure 19 is a meshing driving schematic diagram of the driving rack and the driving gear in the present application;

[0040] Figure 20a, b, c, d in the figure are the meshing change state diagram of the driving rack and the driving gear in the application.

[0041] In the figure, 1, housing; 2, side support seat; 3, main mold; 310, pouring channel; 320, venting hole; 330, conical groove; 340, conical boss; 4, bottom mold; 5, first screw rod; 6, first sliding table; 7, first bearing sleeve; 8, rotary cylinder; 9, motor; 10, first transmission belt; 11, first driving shaft; 12, driven gear; 13, driving gear; 14, driven gear ring; 15, second transmission belt; 16, first bevel gear pair; 17, rotary swing arm; 1710, pulley; 18, reciprocating swing arm; 1810, sliding groove; 19, rotary seat; 20, driving rack; 21, second bevel gear pair; 22, second driving shaft; 23, second screw rod; 24, spline sleeve; 25, spline shaft; 26, track sliding groove; 27, track sliding table; 28, second sliding table; 29, second bearing sleeve; 30, top support structure; 301, guide rail; 302, rack; 303, guide rod; 304, support seat; 305, sector gear; 306, top support arm; 31, tooling frame; 32, driving gear; 33, third bevel gear pair; 34, third driving shaft; 3410, spiral sliding groove; 35, sliding sleeve; 3510, spiral sliding buckle. DETAILED DESCRIPTION

[0042] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, not all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of the present application.

[0043] In the description of the present application, it should be understood that the terms "opening", "upper", "lower", "thickness", "top", "middle", "length", "inner", "periphery" and the like indicate the orientation or positional relationship, which are only for the convenience of describing the present application and simplifying the description, and do not indicate or imply that the components or elements referred to must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as a limitation of the present application.

[0044] The following is based on Figures 1-20 The production equipment of the energy-saving sound-absorbing environment-friendly light inner wall partition plate is described.

[0045] As Figures 1-3As shown, the production equipment of the energy-saving sound-absorbing environment-friendly light inner wall partition plate comprises a split assembled main mold 3, and a plurality of pouring channels 310 are formed after the assembly of the main mold 3 (the pouring channels 310 are arranged in a two-two symmetrical form to provide convenience for two-two symmetrical material taking of the subsequent inner wall partition plate), and further comprises a demolding assembly for driving the main mold 3 to move one by one and relatively move and separate from the inner wall partition plate. After the inner wall partition plate is poured and formed, the demolding assembly is used to move the main mold 3 one by one, on the one hand, the split demolding of the main mold 3 is realized, the demolding resistance acting on the inner wall partition plate is smaller, and the demolding is more convenient; on the other hand, the main mold 3 and the inner wall partition plate are sheared in the vertical direction, and the main mold 3 and the inner wall partition plate are relatively moved in the shearing state at the same time of demolding, and since the main mold 3 always covers the inner wall partition plate, the integrity of the separated inner wall partition plate can be fully guaranteed, and the tearing and sticking phenomenon caused by horizontal demolding will not occur.

[0046] Furthermore, the bottom mold 4 is arranged at the bottom of each pouring channel 310 and combined with the main mold 3 to form an inner wall partition plate pouring mold. After the demolding assembly drives the main mold 3 to demold, the demolding assembly further drives the bottom mold 4 to move along the pouring channel 310 (the bottom mold 4 moves in the pouring channel 310 in a two-two symmetrical form to push out the inner wall partition plate two-two symmetrically), and the inner wall partition plate is pushed out of the demolding. After the main mold 3 is demolded one by one, the bottom mold 4 is driven to move along the pouring channel 310 by the demolding assembly, and the inner wall partition plate is completely pushed out of the pouring channel 310, which plays an auxiliary pushing role and facilitates the material taking of the inner wall partition plate (when the inner wall partition plate is completely pushed out, a horizontal pushing force can be applied to the inner wall partition plate to make the inner wall partition plate and the bottom mold 4 move horizontally, so that the bottom mold 4 and the inner wall partition plate are separated, the tearing and sticking caused by direct material taking is avoided, and the inner wall partition plate maintains a smooth and flat appearance after pouring and demolding), and on the other hand, the residual materials in the pouring channel 310 caused by pouring can be scraped and cleaned when the bottom mold 4 moves along the pouring channel 310, so that the residual materials are gathered at the pouring port of the pouring channel 310, facilitating cleaning and reducing the difficulty of subsequent cleaning.

[0047] As shown in the drawings, Figures 5-12As shown, in order to realize the one-by-one demolding of the main mold 3 after the inner wall partition pouring, the demolding assembly includes a machine shell 1, the machine shell 1 is arranged below the bottom mold 4, and side support seats 2 are arranged on both sides of the machine shell 1, wherein each group of side support seats 2 is provided with a first lead screw 5 arranged in a split body, the first lead screw 5 is rotatably connected between two adjacent groups of first lead screws 5 through a first bearing sleeve 7 (the first bearing sleeve 7 is also arranged on the side support seat 2, which plays a role in driving the adjacent first lead screw 5 independently and supporting the first lead screw 5 to support the corresponding main mold 3), and the first lead screw 5 is provided with a first sliding table 6 connected with the main mold 3 in the axial direction, the rotation of the first lead screw 5 is converted into linear thrust through the first sliding table 6, which drives the main mold 3 to move relative to the inner wall partition to demold, and then according to this state, the other first lead screws 5 are driven to rotate one by one, thereby generating driving force for the one-by-one movement of the main mold 3 (as shown in the a, b, c, d state change diagram in Figure 12 , while the lowermost main mold 3 is moving to demold, the space for the demolding of the upper main mold 3 is provided, and then according to this state, the one-by-one demolding of the main mold 3 is completed, and the space required for the demolding is smaller and the demolding is more convenient), and specifically:

[0048] As shown in Figures 7-11 , the first lead screw 5 further forms a first cavity, the inner wall of the first cavity is provided with a spline tooth sleeve 24, and a second driving shaft 22 is arranged in the first cavity, the spline shaft 25 is slidably arranged on the second driving shaft 22 in the axial direction, the spline shaft 25 is engaged with the spline tooth sleeve 24, and the first lead screw 5 is driven to rotate, the second driving shaft 22 is controlled to rotate, thereby driving the spline shaft 25 to rotate, and the spline shaft 25 and the spline tooth sleeve 24 cooperate to generate driving force for driving the first lead screw 5 to rotate, and more specifically:

[0049] The second driving shaft 22 further forms a second cavity, the second cavity is provided with a second lead screw 23, the second lead screw 23 is provided with a second sliding table 28 in the axial direction, at the same time, the inner ring of the spline shaft 25 is provided with a track sliding table 27, and the axial direction of the second driving shaft 22 is further provided with a track sliding groove 26 for providing the sliding of the track sliding table 27, the second lead screw 23 is controlled to rotate, the rotation is converted into linear thrust under the guidance of the track sliding table 27 and the track sliding groove 26, thereby driving the second sliding table 28 to move along the second lead screw 23 in the axial direction, and then driving the spline shaft 25 to move along the second driving shaft 22 in the axial direction (since the track sliding table 27 is rotatably connected with the second sliding table 28 through a second bearing sleeve 29, the second sliding table 28 only acts on the movement of the spline shaft 25, and does not affect the self-rotation characteristics of the spline shaft 25 during the movement), the spline shaft 25 is gradually pushed into different first cavities, and is engaged with the spline tooth sleeve 24 in the corresponding first cavity, thereby generating driving force for driving different first lead screws 5, so as to drive the main mold 3 to move and demold one by one.

[0050] As a further aspect of the present embodiment, as shown in Figures 5-7 The demolding assembly further comprises a first driving shaft 11 arranged on one side of the second driving shaft 22 and the second lead screw 23, and is connected in transmission with the second driving shaft 22 and the second lead screw 23 through the second bevel gear pair 21. Meanwhile, a driven gear 12 is arranged in the middle of the first driving shaft 11, and the driven gear 12 is connected in transmission with the first driving shaft 11 through the first bevel gear pair 16. By using the driven gear 12 as a driving source, the first driving shaft 11 is driven to rotate under the transmission of the first bevel gear pair 16. At the same time, the second driving shaft 22 and the second lead screw 23 are driven to rotate synchronously under the transmission of the second bevel gear pair 21. The rotation of the second lead screw 23 on the spline shaft 25 and the rotation of the second driving shaft 22 on the spline shaft 25 make the spline shaft 25 gradually transition to different first lead screws 5 in a rotary movement state, so as to drive the first lead screws 5 to rotate one by one.

[0051] It should be noted that since the first driving shaft 11 is divided into two groups and arranged below the two groups of side support seats 2, the second transmission belt 15 is arranged on the two groups of first driving shafts 11 to keep synchronous transmission. At this time, only the combination of the first bevel gear pair 16 and the driven gear 12 needs to be arranged on one of the two groups of first driving shafts 11, so as to realize synchronous transmission of the two groups of first driving shafts 11.

[0052] Further, the demolding assembly further comprises a driving gear 13 arranged on one side of the driven gear 12, and a motor 9 fixedly connected to the side support seat 2 is arranged on one side of the driving gear 13. The motor 9 and the driving gear 13 are connected through the first transmission belt 10. Meanwhile, a reciprocating swing arm 18 is sleeved on the output shaft of the motor 9, and the other end of the reciprocating swing arm 18 is connected in rotation with the driving gear 13 (so that the driving gear 13 can swing around the output shaft of the motor 9. At the same time of swinging, the first transmission belt 10 also swings around the output shaft of the motor 9 to ensure real-time transmission of the first transmission belt 10 on the driving gear 13). Moreover, a rotary air cylinder 8 fixedly connected to the side support seat 2 is arranged above the reciprocating swing arm 18. The rotary air cylinder 8 is provided with a rotary swing arm 17 at the extension end thereof. The other end of the rotary swing arm 17 is provided with a pulley 1710. The pulley 1710 is connected in sliding with a sliding groove 1810 arranged on the reciprocating swing arm 18. By controlling the rotary air cylinder 8 to work, the rotary swing arm 17 is driven to swing. Under the cooperation of the pulley 1710 and the sliding groove 1810, the reciprocating swing arm 18 is driven to swing, so that the driving gear 13 is engaged with the driven gear 12. Then, the driving gear 13 is driven to rotate under the cooperation of the motor 9 and the first transmission belt 10. By the engagement of the driving gear 13 and the driven gear 12, a driving source for driving the first lead screw 5 to rotate one by one is formed.

[0053] As shown in Figures 5-6 ,Figures 13-20 As shown, to achieve active material handling of the interior wall partition and cleaning of residual material during the material handling process, the demolding assembly also includes a top support structure 30 arranged below each set of bottom molds 4. The top support structure 30 is built into the housing 1. A third drive shaft 34 is provided on one side of the top support structure 30. The third drive shaft 34 is installed in the housing 1 through a tooling bracket 31. A spiral groove 3410 is also formed on the third drive shaft 34. At the same time, a sliding sleeve 35 is fitted on the third drive shaft 34 and connected to the top support structure 30. A spiral buckle 3510 is provided inside the sliding sleeve 35. The spiral buckle 3510 can slide along the spiral groove 3410, generating a driving force acting on the top support structure 30. By controlling the rotation of the third drive shaft 34, under the cooperation of the spiral groove 3410 and the spiral buckle 3510 (such as... Figure 18 As shown), the rotational force is converted into a linear thrust, pushing the sliding sleeve 35 to move axially along the third drive shaft 34. The horizontal movement force of the sliding sleeve 35 acts on the top support structure 30, causing the top support structure 30 to apply a top support thrust to the bottom mold 4, pushing the inner wall partition out of the main mold 3 for easy material removal. Simultaneously, the bottom mold 4 comes into contact with the main mold 3, removing residual impurities from the casting chamber for cleaning. Specifically:

[0054] like Figures 15-17 As shown, the top support structures 30 are arranged symmetrically in pairs to drive the bottom mold 4 to move along the casting channel 310. Each top support structure 30 includes a guide rail 301 located below the bottom mold 4, a rack 302 slidably mounted on the guide rail 301, a guide rod 303 at one end of the rack 302, the guide rod 303 being fixedly connected to the sliding sleeve 35, and a sector gear 305 on the movement trajectory of the rack 302. The sector gear 305 is mounted above the rack 302 via a support base 304 and interacts with the rack. 302 meshing, wherein the sector gear 305 is provided with a top support arm 306, and the top support arm 306 is connected to the bottom mold 4. While the sliding sleeve 35 moves horizontally, it drives the rack 302 to slide along the track of the guide rail 301 through the guide rod 303. During the sliding, the rack 302 meshes with the sector gear 305, converting the linear force into a rotational thrust acting on the sector gear 305. During the rotation of the sector gear 305, the top support arm 306 is pushed to rotate and unfold, pushing the bottom mold 4 to rise and move along the pouring channel 310.

[0055] As a further solution to this embodiment, such as Figures 14-16 , Figures 19-20As shown, the demolding assembly further comprises a drive gear 32 arranged in the middle of the third drive shaft 34, which is rotatably mounted on the tool holder 31 and connected to the third drive shaft 34 through the third bevel gear pair 33, and a driven gear ring 14 is arranged on the rotation path of the drive gear 32 (the driven gear ring 14 is arranged on the other side of the driving gear 13), which is rotatably mounted on the casing 1 through a rotating seat 19, wherein the inner ring of the driven gear ring 14 is provided with a drive rack 20, which is arranged in a staggered manner (as shown in Figure 19 As shown, by arranging the drive rack 20 in two rows and staggering each row of drive rack 20, each row of drive rack 20 is sequentially engaged with the corresponding path of the drive gear 32 to drive the bottom mold 4 in pairs), sequentially engaged with the drive gear 32, after the demolding of the main mold 3 is completed, the driving gear 13 is controlled to be deflected and engaged with the driven gear ring 14 to generate driving force for rotating the driven gear ring 14, and the driven gear ring 14 is used as a driving source to drive the drive rack 20 to rotate during the rotation of the driven gear ring 14, so that the drive rack 20 passes through the corresponding path of the drive gear 32 in pairs (as shown in Figure 20 As shown in the state change diagram of a, b, c, d), by sequentially engaging with the drive gear 32, a driving source is formed, so that during the rotation of the corresponding drive gear 32, the third drive shaft 34 is driven to rotate through the third bevel gear pair 33, generating driving force acting on the bottom mold 4 to lift, so that the bottom mold 4 pushes out the inner wall partition in a symmetrical form (by pushing out the inner wall partition one by one, on the one hand, the load force is reduced, and on the other hand, the inner wall partition is conveniently taken out one by one).

[0056] It should be noted that during the continuous rotation of the driven gear ring 14, after the engagement between the previous group of drive racks 20 and the drive gear 32 is completed, the lifting and pushing force acting on the previous group of bottom molds 4 disappears, at this time, the previous group of bottom molds 4 is lowered and reset under the action of gravity, and the engagement between the next group of drive racks 20 and the drive gear 32 drives the next group of bottom molds 4 to lift again, forming an alternating driving state, which sequentially acts on the taking out of the inner wall partition one by one.

[0057] In addition to the above, Figures 3-4 As shown, the middle part of the main mold 3 is staggered to form a ventilation hole 320, and since the inner wall partition after pouring usually needs to be steam cured, the ventilation hole 320 formed in the middle part of the main mold 3 is beneficial to the circulation of steam heat, so that the heat uniformly acts on each inner wall partition, accelerates the internal water reaction of the concrete, improves the activity of water molecules, and accelerates the dissolution and reaction speed of cement particles.

[0058] In addition, the lower end of the main mold 3 is provided with a tapered groove 330, and the upper end of the main mold 3 is provided with a tapered boss 340. The tapered groove 330 and the tapered boss 340 are matched, and during the mutual molding of the main mold 3, the sealing line in the misaligned state is formed at the interface part through the setting of the tapered groove 330 and the tapered boss 340, thereby ensuring the sealing performance after the molding.

[0059] During use (working), the inner wall partition concrete raw materials are poured into the pouring channel 310 in sequence, and are cured and formed in the pouring channel 310. After the inner wall partition is poured and formed, the rotation driving of the rotary cylinder 8 is first used to make the driving gear 13 be eccentrically engaged on the driven gear 12 to form a driving source. The rotation of the driven gear 12 drives the first driving shaft 11 to rotate, and the driving force is transmitted to the second driving shaft 22 and the second lead screw 23. The movement of the second lead screw 23 acting on the spline shaft 25 and the rotation of the second driving shaft 22 acting on the spline shaft 25 make the spline shaft 25 gradually transition to different first lead screws 5 in a rotary movement state to drive the first lead screws 5 to rotate one by one. Under the cooperation of the corresponding first lead screw 5 and the first sliding table 6, the driving force acting on the main mold 3 is generated to move and demold the main mold 3 in a split state. The demolding resistance is smaller, and the demolding is more convenient. During the demolding process, the inner wall partition also moves in the vertical direction, so that the integrity of the inner wall partition can be fully guaranteed, and the tearing and sticking phenomenon caused by horizontal demolding does not occur.

[0060] Then, after the demolding of the main mold 3 is completed, the reset rotation driving of the rotary cylinder 8 is used to make the driving gear 13 be eccentrically engaged on the driven gear 14 to form a driving source. During the rotation of the driven gear 14, the driving rack 20 passes through the corresponding driving gear 32 in sequence, so that the driving gear 32 rotates in pairs to drive the corresponding two groups of third driving shafts 34 to rotate. Through the cooperation of the third driving shaft 34 and the sliding sleeve 35, the driving force acting on the supporting structure 30 is generated. Through the driving of the supporting structure 30, the bottom mold 4 is pushed out in pairs to push the inner wall partition out of the main mold 3. The material taking is convenient, and the pouring channel 310 in the main mold 3 is in relative contact to push out the impurities remaining in the pouring channel 310 for cleaning treatment, thereby reducing the subsequent cleaning difficulty.

[0061] After the inner wall partition is pushed out, the bottom mold 4 and the main mold 3 are only controlled to reset, and the pouring mold can be formed again. The pouring mold does not need to be disassembled as a whole, occupies a small space, and is convenient for subsequent circulation pouring work.

[0062] It is to be understood that the terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting; it is not intended to exclude myriad other embodiments of the present application that other presenters can develop. It is also possible, however, that only a single element can be present. It is further noted that such a term as "comprising" is intended to mean that the embodiments include the recited elements, but not excluding other elements. "Consisting essentially of when used herein in relation to a composition, means that the composition includes the recited elements, and can include additional elements, so long as the additional elements do not materially alter the basic and novel properties of the claimed composition. "Consisting of" when used herein in relation to a composition means that the composition includes the recited elements and nothing more.

[0063] The preferred embodiments of the application disclosed above are only to help explain the principles of the present application. The preferred embodiments do not limit the present application to only the specific embodiments described. It is apparent that many modifications and variations of this application are possible in light of this disclosure. The preferred embodiments are chosen and described in order to best explain the principles of the application and the practical application, to thereby enable others skilled in the art to best utilize the application. The present application is limited only by the claims and their full scope and equivalents.

Claims

1. A production device of an energy-saving sound-absorbing environment-friendly light inner wall partition plate, characterized in that, The utility model relates to a kind of inner wall partition pouring moulds, including: Main mould (3) is assembled in split body, and at least one group of pouring channel (310) is formed after assembly is ended; Bottom mould (4) is arranged at the bottom of each pouring channel (310), and is closed with main mould (3), to form inner wall partition pouring mould; Demoulding assembly is used to drive main mould (3) to move one by one, relative movement separates demoulding with inner wall partition, and after main mould (3) demoulding is ended, drive bottom mould (4) along pouring channel (310) and push out demoulding from inner wall partition.

2. The production equipment of the energy-saving, sound-absorbing, environmentally friendly, and light inner wall partition plate according to claim 1, characterized in that, The demoulding assembly includes: First lead screw (5) is arranged in at least one side of main mould (3) in split body, wherein, adjacent two groups of first lead screw (5) are rotatably installed by first bearing sleeve (7), and the axial direction of first lead screw (5) is provided with first sliding table (6) connected with main mould (3); The inside of the first lead screw (5) further forms a first cavity, and the inner wall of the first cavity is provided with a spline tooth sleeve (24); Second drive shaft (22) is arranged in the first cavity, and spline shaft (25) is slidably installed in the axial direction thereof, spline shaft (25) is engaged with spline tooth sleeve (24), and first lead screw (5) is driven to rotate; The inside of the second drive shaft (22) further forms a second cavity; Second lead screw (23) is arranged in the second cavity, and second sliding table (28) is provided in the axial direction thereof, wherein, second sliding table (28) is rotatably installed with spline shaft (25), to generate driving force to drive spline shaft (25) to move, so that the spline shaft (25) is displaced into different first cavities, to generate driving force to drive corresponding first lead screw (5) to rotate.

3. The production equipment of the energy-saving, sound-absorbing, environmentally friendly, and light inner wall partition plate according to claim 2, characterized in that, The demoulding assembly further includes: Top support structure (30) is arranged below each group of bottom mould (4); Third drive shaft (34) is arranged on one side of top support structure (30), wherein, third drive shaft (34) is formed with spiral slide groove (3410); Sleeve (35) is sleeved on third drive shaft (34) and connected with top support structure (30), wherein, the inside of sleeve (35) is provided with spiral slide buckle (3510), and spiral slide buckle (3510) can slide along spiral slide groove (3410) to generate driving force acting on top support structure (30).

4. The production equipment of the energy-saving, sound-absorbing, environmentally friendly, and light inner wall partition plate according to any one of claims 2-3, characterized in that, The demoulding assembly further includes: First drive shaft (11) is arranged on one side of second drive shaft (22) and second lead screw (23), and is connected with second drive shaft (22) and second lead screw (23) through second bevel gear pair (21) respectively; Driven gear (12) is arranged in the middle of first drive shaft (11), and is connected with first drive shaft (11) through first bevel gear pair (16).

5. The production equipment of the energy-saving, sound-absorbing, environmentally friendly, and light inner wall partition plate according to claim 4, characterized in that, The demoulding assembly further includes: Driving gear (32) is arranged in the middle of third drive shaft (34), and is connected with third drive shaft (34) through third bevel gear pair (33); Driven gear ring (14) is arranged on the rotation path of driving gear (32), wherein, the inner ring of driven gear ring (14) is provided with driving rack (20), and driving rack (20) is arranged in staggered mode and is engaged with driving gear (32) in sequence.

6. The production equipment of the energy-saving, sound-absorbing, environmentally friendly, and light inner wall partition plate according to claim 4, characterized in that, The demoulding assembly further includes: The driving gear (13) is arranged between the driven gear (12) and the driven gear ring (14); The motor (9) is arranged on one side of the driving gear (13), and the motor (9) and the driving gear (13) are connected through the first transmission belt (10); The reciprocating swing arm (18) is sleeved on the output shaft of the motor (9) and is connected with the driving gear (13) at the other end; The rotary cylinder (8) is arranged above the reciprocating swing arm (18) and is used for driving the reciprocating swing arm (18) to swing, so that the driving gear (13) is engaged with the driven gear (12) and the driven gear ring (14) in turn, and driving force for moving the main mold (3) and the bottom mold (4) is generated.

7. The production equipment of the energy-saving, sound-absorbing, environmentally friendly, and light inner wall partition plate of claim 4, characterized in that, The inner ring of the spline shaft (25) is provided with a track sliding table (27), and the track sliding table (27) and the second sliding table (28) are connected through the second bearing sleeve (29). The second driving shaft (22) is provided with a track sliding groove (26) for providing the track sliding table (27) to slide.

8. The production equipment of the energy-saving, sound-absorbing, environmentally friendly, and light inner wall partition plate of claim 4, characterized in that, The top support structure (30) is arranged in pairs of symmetry, and is used for driving the bottom mold (4) to move along the pouring channel (310). The guide rail (301) is arranged below the bottom mold (4); The rack (302) is slidably installed on the track of the guide rail (301), and one end of the rack (302) is provided with a guide rod (303), wherein the guide rod (303) is fixedly connected with the sliding sleeve (35); The sector gear (305) is arranged on the moving track of the rack (302) and is engaged with the rack (302), wherein the sector gear (305) is provided with a top support arm (306) and the top support arm (306) is connected with the bottom mold (4).

9. The production equipment of the energy-saving, sound-absorbing, environmentally friendly, and light inner wall partition plate of claim 8, characterized in that, The middle part of the main mold (3) is offset from the pouring channel (310) and is provided with a ventilation hole (320).

10. The production equipment of the energy-saving, sound-absorbing, environmentally friendly, and light inner wall partition plate according to claim 8, characterized in that, The lower end of the main mold (3) is provided with a conical groove (330), and the upper end of the main mold (3) is provided with a conical boss (340), and the conical groove (330) and the conical boss (340) are matched.

Images