A method for processing thermal insulation mortar

Abstract

The present invention relates to the field of building construction, and more specifically to a method for processing thermal insulation mortar, which comprises the following steps: mixing and stirring the mixed mortar in a partitioned mixing box, and dividing the mixed mortar in equal proportions by driving a partitioned adding table; the partitioned adding table corresponds to a disassembled transverse sliding table that slides laterally; the disassembled transverse sliding table is driven to pass through the partitioned adding table to divide and drop the mortar; liquid thermal insulation rubber is added to the divided mortar through an extrusion tube by driving extrusion; part of the mortar is squeezed out by extrusion so that the rubber is evenly and quantitatively arranged on the divided mortar; the partitioned table is slid and disassembled to take out the mortar that has been divided in equal proportions; and batches of mortar with rubber are taken out for use in building bonding. The present invention has the beneficial effect of processing thermal insulation mortar with a rubber partition layer inside in batches and quantitatively through the partitioned mortar for use in building bonding.

Description

Technical Field

[0001] The invention relates to the field of building construction, and more specifically to a method for processing thermal insulation mortar. Background Art

[0002] By bonding and blocking the spread of mortar, it is convenient for construction and effective insulation, and an effective insulation effect of temperature difference is produced. By adding different raw materials, the effects produced are different; Patent No. CN202111129372.0 discloses a thermal insulation mortar processing method. The processing method includes the following steps: S1: using a thermal insulation mortar processing device to store vitrified microspheres; S2: inserting the stored vitrified microspheres into the concrete for dispersion, and mixing the vitrified microspheres and concrete together; S3: adding thermal insulation glue powder and water to the concrete mixed with vitrified microspheres; S4: fully mixing the vitrified microspheres, concrete, thermal insulation glue powder and water together. The thermal insulation mortar processing device includes a square column, a conical block, a storage cylinder and a middle beam. The lower end of the square column is fixedly connected to the middle of the conical block, the upper and lower sides of the storage cylinder are open, the upper side of the storage cylinder is fixedly connected to the middle beam, the square column is vertically slidably connected to the middle of the middle beam, and the conical block is located on the lower side of the storage cylinder. The upper and lower halves of the conical block are both conical. However, the mortar processed by this processing method cannot contain rubber for insulation. Summary of the invention

[0003] The purpose of the present invention is to provide a method for processing thermal insulation mortar, which has the beneficial effect of quantitatively processing thermal insulation mortar with a rubber separation layer inside in batches through separation mortar for use in construction and bonding.

[0004] The purpose of the present invention is achieved through the following technical solution: a method for processing thermal insulation mortar, the method comprising the following steps:

[0005] Step 1: Mix the mixed mortar in a partitioned mixing box, and divide the mixed mortar into equal proportions by driving the partitioned adding table;

[0006] Step 2: The separation and addition platform corresponds to the disassembly transverse sliding platform that slides transversely; the disassembly transverse sliding platform is driven to pass through the separation and addition platform to make the mortar separate and fall;

[0007] Step 3: Add liquid thermal insulation rubber into the separated mortar through an extrusion tube by driving the extruder;

[0008] Step 4: squeeze out part of the mortar so that the rubber is evenly and quantitatively arranged on the separated mortar;

[0009] Step 5: Slide and disassemble the partition table to take out the mortar that has been divided in equal proportions; take out a batch of mortar with rubber for use in building bonding.

[0010] The disassembly partition table is provided with a closed disassembly bottom plate frame through a sealing ring for sealing and disassembly, a tic-tac-toe separation frame for separating quantitative mortar is fixed on the closed disassembly bottom plate, and a plurality of inner disassembly bottom plates are provided in the tic-tac-toe separation frame through a sealing ring for sealing and disassembly.

[0011] The side end of the disassembly partition table is fixed with a disassembly combined rack for driving, and the lower end of the disassembly partition table is fixed with a hand pull ring for easy removal; the two ends of the disassembly partition table slide in the disassembly transverse sliding table through a limit slider.

[0012] The disassembly transverse sliding platform drives a transverse driver through the meshing of gear racks, the transverse driver is fixed on the fixed base platform, and the disassembly transverse sliding platform slides transversely in the fixed base platform through a slider.

[0013] The mixed mortar raw materials are added into the partition mixing box in proportion for mixing and stirring. After the stirring is completed, the partition adding table is driven to be inserted downward into the partition mixing box to evenly separate the mortar, and the disassembled transverse sliding table is driven to slide transversely to the lower end of the partition mixing box and correspond to the separation of the partition adding table. After the position is determined, the liquid thermal insulation rubber in the partition adding table is driven to be squeezed and added to the separated mortar in a quantitative manner. After the rubber is added, the disassembled transverse sliding table is driven to slide transversely to take out a quantitative amount of mortar and a quantitative amount of rubber in the middle, so that the rubber is bonded in the mortar, and batches of mortar with rubber are manually taken out. Then, by applying the mortar bonded with rubber to construction, the adhesion is increased while the thermal insulation performance is increased, so that quantitative batch use in construction is convenient. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 It is a schematic diagram of the process of preparing the thermal insulation mortar of the present invention;

[0015] Figure 2 It is a structural schematic diagram of the closed and removable bottom plate frame of the present invention;

[0016] Figure 3 The structure of the disassembly partition table of the present invention is shown in FIG. Figure 1 ;

[0017] Figure 4 The structure of the disassembly partition table of the present invention is shown in FIG. Figure 2 ;

[0018] Figure 5 It is a structural schematic diagram of a disassembly lateral sliding table of the present invention;

[0019] Figure 6 It is a structural schematic diagram of a fixed base platform of the present invention;

[0020] Figure 7 The structure of the partition mixing box of the present invention is shown in FIG. Figure 1 ;

[0021] Figure 8 The structure of the partition mixing box of the present invention is shown in FIG. Figure 2 ;

[0022] Fig. 9 This is a schematic diagram of the structure of the separation adding station of the present invention. Figure 1 ;

[0023] Fig.10 This is a schematic diagram of the structure of the separation adding station of the present invention. Figure 2 ;

[0024] Fig.11 It is a schematic diagram of the structure of the squeeze column platform drive of the present invention;

[0025] Fig.12 The overall structure of the present invention is shown in FIG. Figure 1 ;

[0026] Fig.13 The overall structure of the present invention is shown in FIG. Figure 2 .

[0027] In the figure: closed disassembly base frame 1; tic-tac-toe partition frame 2; disassembly partition table 3; disassembly combination rack 4; inner disassembly base plate 5; hand pull ring 6; disassembly horizontal sliding table 7; horizontal drive 8; fixed base 9; upper longitudinal limit fixing frame 10; partition stirring box 11; adding bucket 12; stirring drive 13; partition adding table 14; longitudinal partition adding drive 15; partition frame 16; extrusion tube 17; extrusion thread drive 18; extrusion column platform 19. DETAILED DESCRIPTION

[0028] The present invention will be further described in detail below in conjunction with the accompanying drawings.

[0029] As shown in the embodiment shown here,

[0030] The mixed mortar raw materials are added into the partition mixing box in proportion for mixing and stirring. After the stirring is completed, the partition adding table is driven to be inserted downward into the partition mixing box to evenly separate the mortar, and the disassembled transverse sliding table is driven to slide transversely to the lower end of the partition mixing box and correspond to the separation of the partition adding table. After the position is determined, the liquid thermal insulation rubber in the partition adding table is driven to be squeezed and added to the separated mortar in a quantitative manner. After the rubber is added, the disassembled transverse sliding table is driven to slide transversely to take out a quantitative amount of mortar and a quantitative amount of rubber in the middle, so that the rubber is bonded in the mortar, and batches of mortar with rubber are manually taken out. Then, by applying the mortar bonded with rubber to construction, the adhesion is increased while the thermal insulation performance is increased, so that quantitative batch use in construction is convenient.

[0031] Further optimization in combination with the above embodiments:

[0032] Further basis Figure 2 , Figure 3 , Figure 4 and Figure 5 The working process of an example of a thermal insulation mortar processing method shown is:

[0033] The closed disassembly base frame 1 sealed by a rubber ring in the disassembly partition table 3 is convenient for disassembling the closed disassembly base frame 1 and presenting the mortar for use. The tic-tac-toe partition frame 2 on the closed disassembly base frame 1 is convenient for separating the mortar into quantitative batches. The multiple inner disassembly base plates 5 sealed by rubber rings in the tic-tac-toe partition frame 2 make it convenient to take out a single inner disassembly base plate 5 separately after taking out the closed disassembly base frame 1 as a whole, and then take out a single mortar for direct use.

[0034] Further optimization in combination with the above embodiments:

[0035] Further basis Figure 2 , Figure 3 , Figure 4 and Figure 5 The working process of an example of a thermal insulation mortar processing method shown is:

[0036] The disassembly combination rack 4 at the side end of the disassembly partition table 3 can prevent the driving rack from being disconnected after disassembly and assembly, and facilitate the use of the transverse drive 8 combined with the transverse drive. The hand pull ring 6 can be used to facilitate the transverse removal of the disassembly partition table 3 that is slidably inserted in the disassembly transverse sliding table 7, thereby facilitating the removal and switching of use.

[0037] Further optimization in combination with the above embodiments:

[0038] Further basis Figure 2 , Figure 3 , Figure 4 and Figure 5 The working process of an example of a thermal insulation mortar processing method shown is:

[0039] The gear rack of the transverse driver 8 is engaged to drive the disassembled transverse sliding platform 7 to slide horizontally in the fixed base 9, thereby facilitating the movement of the disassembled transverse sliding platform 7 and switching and blocking the mortar to prevent leakage; in the process of removing the mortar, the closed blocks at both ends of the disassembled transverse sliding platform 7 are used to prevent leakage.

[0040] Further optimization in combination with the above embodiments:

[0041] Furthermore, a longitudinal limit fixing frame 10 for limiting longitudinal limit sliding is fixed on the upper end of the fixed base 9, and a partition mixing box 11 for mortar mixing is fixed in the longitudinal limit fixing frame 10. Figure 6 , Figure 7 , Figure 8 and Fig. 9 The working process of an example of a thermal insulation mortar processing method shown is:

[0042] The entire device is fixed by fixing the base 9 through anchor bolts, and the partition mixing box 11 is fixed by the longitudinal limit fixing frame 10. The entire shape of the partition mixing box 11 is convex, which is convenient for mixing and mixing without affecting the separation.

[0043] Further optimization in combination with the above embodiments:

[0044] Furthermore, a plurality of adding buckets 12 are evenly fixed and connected at both ends of the partitioned mixing box 11, and a stirring drive 13 for stirring mortar is rotatably arranged in the partitioned mixing box 11, and the motor of the stirring drive 13 is fixed on the fixed base 9. Figure 6 , Figure 7 , Figure 8 and Fig. 9 The working process of an example of a thermal insulation mortar processing method shown is:

[0045] A plurality of adding buckets 12 connected to the side ends of the separated mixing box 11 make it convenient to add the mixed raw materials of the mortar in equal proportions, and then the stirring wings are driven to rotate by the stirring driver 13 rotating inside the two ends of the separated mixing box 11 to achieve stirring and mixing. The stirring and mixing is driven by the stirring wings arranged on both sides, and the stirring driver 13 drives the stirring synchronously through a synchronous belt transmission.

[0046] Further optimization in combination with the above embodiments:

[0047] Furthermore, a partition adding platform 14 is provided in the longitudinal limit fixing frame 10 for longitudinal limit sliding, and the partition adding platform 14 is connected to a longitudinal partition adding driver 15 through threaded cooperation, and the longitudinal partition adding driver 15 is fixed to the side end of the longitudinal limit fixing frame 10. Fig. 9 , Fig.10 , Fig.11 and Fig.12 The working process of an example of a thermal insulation mortar processing method shown is:

[0048] The longitudinal partitioning and adding driver 15 is fixed on the side end of the longitudinal limiting and fixing frame 10, and then the partitioning and adding platform 14 is driven to slide longitudinally in the longitudinal limiting and fixing frame 10 through threaded cooperation, thereby realizing the longitudinal drive addition of the partitioning and adding platform 14, and then the mixed and stirred mortar is separated by the driving of the partitioning and adding platform 14.

[0049] Further optimization in combination with the above embodiments:

[0050] Further, a partition frame 16 is fixed at the lower end of the partition adding platform 14, and a plurality of extrusion tubes 17 are fixed in the partition frame 16. A rubber stock storage bin is arranged in the upper end of the partition adding platform 14, and the extrusion tubes 17 are connected to the rubber stock storage bin. Fig. 9 , Fig.10 , Fig.11 and Fig.12 The working process of an example of a thermal insulation mortar processing method shown is:

[0051] The partition frame 16 at the lower end of the separating adding platform 14 and the lower drive of multiple extrusion tubes 17 are inserted into the mortar, and the mortar is separated by the correspondence between the partition frame 16 and the tic-tac-toe partition frame 2. At the same time, multiple extrusion tubes 17 are inserted into the mortar to facilitate the addition of rubber.

[0052] Further optimization in combination with the above embodiments:

[0053] Furthermore, the side end of the separation and addition platform 14 is fixed with an extrusion thread driver 18, which drives the extrusion column platform 19 to slide longitudinally on the separation and addition platform 14 through threaded engagement. A plurality of extrusion columns are fixed at the lower end of the extrusion column platform 19, and the extrusion columns are inserted into the extrusion tube 17; Fig.10 , Fig.11 The working process of an example of a thermal insulation mortar processing method shown is:

[0054] The extrusion column platform 19 is driven to slide longitudinally within the partitioning and adding platform 14 by the threaded cooperation of the extrusion threaded driver 18 fixed on the partitioning and adding platform 14, so that the extrusion column platform 19 downwardly squeezes the liquid rubber stored in the rubber preparation bin at the upper end of the partitioning and adding platform 14, and then pressurizes the rubber to squeeze the mortar through the extrusion tube 17, thereby completing the quantitative addition of rubber, and then adding a quantitative rubber combination to the quantitative mortar, and the rubber is bonded to the mortar, which facilitates the overall bonding of the mortar and wraps the building bricks. At the same time, the rubber bonding and combined isolation are used to complete the use of a mortar with an insulating and cooling effect.

[0055] The fixed connection described in the present device may refer to fixation by welding, block merging fixation, casting integral forming fixation and threaded fixation, etc., and the adaptation selection is made in combination with the installation and disassembly methods; the rotation connection described may refer to the process of baking the bearing on the shaft, providing a spring retaining ring groove or an inter-shaft baffle on the shaft or the shaft hole, and realizing the axial fixation of the bearing by clamping the elastic retaining ring in the spring retaining ring groove or the inter-shaft baffle, and realizing rotation by the relative sliding of the bearing; the limited sliding refers to the sliding mode in which a slider with a ball or bearing that reduces resistance slides in a fitting manner with a slide groove, limits the sliding trajectory, sliding direction and position, and limits the position by limiting the position; in combination with different usage environments, different connection methods are used for further differentiation.

Claims

1. A method for processing thermal insulation mortar, characterized in that: The method comprises the following steps: Step 1: Mix the mixed mortar in a partitioned mixing box, and divide the mixed mortar into equal proportions by driving the partitioned adding table; Step 2: The separation and addition platform corresponds to the disassembly transverse sliding platform that slides transversely; the disassembly transverse sliding platform is driven to pass through the separation and addition platform to make the mortar separate and fall; Step 3: Add liquid thermal insulation rubber into the separated mortar through an extrusion tube by driving the extruder; Step 4: squeeze out part of the mortar so that the rubber is evenly and quantitatively arranged on the separated mortar; Step 5: Slide and disassemble the partition table to take out the mortar that has been divided in equal proportions; take out a batch of mortar with rubber for use in building bonding; The disassembly partition table (3) is provided with a closed disassembly bottom plate frame (1) in a sealed disassembly manner through a sealing ring, a tic-tac-toe partition frame (2) for separating quantitative mortar is fixed on the closed disassembly bottom plate frame (1), and a plurality of inner disassembly bottom plates (5) are provided in the tic-tac-toe partition frame (2) in a sealed disassembly manner through a sealing ring; A disassembly assembly rack (4) for driving is fixed to the side end of the disassembly partition table (3), and a hand pull ring (6) for easy removal is fixed to the lower end of the disassembly partition table (3); both ends of the disassembly partition table (3) slide in the disassembly transverse sliding table (7) via a limit slider; The disassembly transverse sliding platform (7) drives a transverse driver (8) through gear rack meshing, the transverse driver (8) is fixed on a fixed base (9), and the disassembly transverse sliding platform (7) slides transversely in the fixed base (9) through a slider; A longitudinal limit fixing frame (10) for limiting longitudinal limit sliding is fixed at the upper end of the fixed base (9), and a partition mixing box (11) for mortar mixing is fixed inside the longitudinal limit fixing frame (10); A plurality of adding buckets (12) are evenly fixed and connected at both ends of the partitioned mixing box (11); a stirring driver (13) for stirring mortar is rotatably arranged in the partitioned mixing box (11); a motor of the stirring driver (13) is fixed on a fixed base (9); A partitioning and adding platform (14) is longitudinally limited and slidably provided in the longitudinal limit fixing frame (10); the partitioning and adding platform (14) is connected to a longitudinal partitioning and adding driver (15) by means of threaded fitting; and the longitudinal partitioning and adding driver (15) is fixed to a side end of the longitudinal limit fixing frame (10); A partition frame (16) is fixed at the lower end of the partition adding platform (14), a plurality of extrusion tubes (17) are fixed in the partition frame (16), a rubber material preparation bin is arranged in the upper end of the partition adding platform (14), and the extrusion tubes (17) are connected to the rubber material preparation bin.

2. A thermal insulation mortar processing method according to claim 1, wherein: An extrusion thread driver (18) is fixed to the side end of the separation and addition platform (14), and the extrusion thread driver (18) drives the extrusion column platform (19) to slide longitudinally on the separation and addition platform (14) through threaded engagement.

3. A thermal insulation mortar processing method according to claim 2, wherein: A plurality of extrusion columns are fixed at the lower end of the extrusion column platform (19), and the extrusion columns are inserted into the extrusion tube (17).

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