Active temperature control fabricated building material and processing equipment thereof

Abstract

The invention relates to an active temperature control fabricated building material and processing equipment thereof, and belongs to the field of building materials, the active temperature control fabricated building material comprises a ceramic rod shutter, the whole ceramic rod shutter is hollow, the cross section of the ceramic rod shutter is oval, sealing blocks are arranged at the two ends of the ceramic rod shutter, two shutter mounting grooves are formed in the ceramic rod shutter, and the shutter mounting grooves are formed in one face of a long axis of the cross section of the ceramic rod shutter; two reinforcing ribs distributed in the axial direction are arranged in the ceramic rod shutter, and a first supporting face and a second supporting face which are distributed in the radial direction are arranged on the two sides of the shutter installation groove respectively. The ceramic rod shutter is of a closed hollow structure and has good weather resistance and temperature control performance.

Description

Technical Field

[0001] The present invention belongs to the field of building materials, and in particular relates to an active temperature-controlled assembled building material and processing equipment thereof. Background Art

[0002] Commonly used materials for building curtain walls include glass, metal, stone, ceramic, and fiber-cement panels. These materials are widely used in modern architecture and each offers distinct performance characteristics. Glass curtain walls offer visual transparency and a modern appearance, but their thermal insulation and energy efficiency capabilities are limited. Metal curtain walls are lightweight and easy to fabricate, but their thermal insulation and corrosion resistance are average.

[0003] In recent years, ceramic rods, long, hollow ceramic components, have been increasingly used in curtain wall systems. They can be modularly arranged to create ceramic rod louver curtain wall systems that combine sunshade, ventilation, and aesthetics. Compared to traditional flat curtain wall materials, ceramic rods offer a more three-dimensional effect and flexible installation options, allowing for both horizontal and vertical arrangements, adapting to a variety of architectural styles. Furthermore, their hollow structure provides a spatial foundation for temperature regulation and energy-saving control.

[0004] Ceramic sticks have excellent weather resistance and thermal stability, and can withstand harsh environments such as wind, sun, freeze-thaw cycles for a long time; their surface can be glazed to provide rich decorative effects; ceramic sticks are inorganic ceramic materials with good fire resistance and environmental protection, and have broad application prospects in the field of green buildings. They are particularly suitable for exterior wall systems that have high requirements for temperature control performance and visual performance.

[0005] However, in the processing of existing ceramic components, mounting grooves are often provided on the sidewalls of the components to achieve structural connections. These grooves are used to insert or secure subsequent connectors. However, since these mounting grooves are often formed through mechanical cutting, they have poor sealing and strength, making them prone to collapse during the installation of louvered connecting components. Furthermore, there is a risk of glaze seeping into the hollow cavity during the subsequent glazing or dipping processes.

[0006] Based on this, an active temperature-controlled assembled building material and processing equipment thereof are proposed. Summary of the Invention

[0007] The purpose of the present invention is to provide an active temperature-control assembled building material and processing equipment thereof, thereby improving the thermal insulation and energy-saving effects of buildings.

[0008] An active temperature-controlled assembled building material includes a ceramic stick louver. The ceramic stick louver is hollow as a whole, has an elliptical cross-section, is provided with sealing blocks at both ends, and has two louver mounting slots formed on the long axis side of the ceramic stick louver cross-section.

[0009] Two axially distributed reinforcing ribs are provided in the ceramic stick louver, and two radially distributed first supporting surfaces and second supporting surfaces are respectively provided on both sides of the louver mounting groove.

[0010] Furthermore, the ceramic stick blinds are installed in a modular assembly manner, arranged horizontally or vertically through prefabricated curtain wall keels or support frames, and fixedly connected to the main structure of the building through snaps, slots or bolts. The ceramic stick blinds are provided with heat storage materials in the cavity formed by the reinforcing ribs, which are used to absorb solar heat during the day and release latent heat at night, thereby adjusting the temperature difference between the inside and outside of the components and achieving temperature control.

[0011] Furthermore, the ceramic stick louver processing steps include:

[0012] Extrusion: The clay is fed into an extruder and extruded into a hollow pottery stick body with an elliptical cross-section using a special die.

[0013] Cutting: The ceramic stick body is cut to a fixed length and sealing blocks are installed at both ends;

[0014] Opening a louver installation slot: cutting two horizontal first incisions and a second incision on the ceramic stick louver, with a vertical third incision provided between the first incision and the second incision, cutting out a first supporting surface and a second supporting surface through the first incision, the second incision, and the third incision, respectively bending the first supporting surface and the second supporting surface inward along the first fold line and the second fold line until the first supporting surface and the second supporting surface are perpendicular to the reinforcing rib;

[0015] Drying treatment: Place the pottery stick body in a constant temperature drying room for pre-drying to control moisture;

[0016] Glazing treatment: glaze the outer surface of the pottery stick louver;

[0017] Sintering: The glazed pottery sticks are sent into a high-temperature kiln for sintering. The sintering temperature curve is controlled to ensure that the product size is stable and the glaze surface is dense and smooth.

[0018] The present disclosure also proposes an active temperature-controlled prefabricated building material processing device, which is used to process an active temperature-controlled prefabricated building material. The processing device includes a clamping mechanism, which includes a mechanical expansion structure and an external airbag structure, and the airbag structure is wrapped around the mechanical expansion structure.

[0019] Furthermore, the mechanical expansion structure includes a mounting seat, a movable pull rod and a plurality of expansion arms distributed in a circumference;

[0020] A movable pull rod is movably mounted on the mounting seat, and a plurality of spreading arms are provided below the mounting seat;

[0021] The lower end of the movable pull rod is connected to an adjustment block, which is provided with a plurality of pull rod mounting slots, and one end of the expansion arm is movably mounted in the corresponding pull rod mounting slot;

[0022] The mounting seat is provided with a connecting rod mounting groove, the middle part of the expansion arm is connected to the mounting seat through a supporting connecting rod, and the two ends of the supporting connecting rod are movably arranged in the connecting rod mounting groove and the middle part of the expansion arm respectively;

[0023] Each opening arm is provided with a contact plane plate at the end thereof, and the outer side of the contact plane plate is covered with a soft layer for contacting and clamping with the inner wall of the shutter mounting groove of the ceramic stick shutter;

[0024] Furthermore, the outer airbag structure includes an upper sealing portion and a lower ball portion, the upper sealing portion is a square structure, and the lower ball portion is a spherical structure.

[0025] Furthermore, the movable pull rod is driven by a pull rod driving device, and the pull rod driving device includes a connecting sleeve, an outer fixed sleeve and a driving cam;

[0026] The connecting sleeve is movably installed in the outer fixing sleeve, and the lower end of the outer fixing sleeve is fixed on the mounting seat;

[0027] The driving cam is arranged inside the connecting sleeve, and the connecting sleeve is provided with a mounting through hole, and one end of the movable pull rod is fixedly installed in the mounting through hole;

[0028] A driving pin cooperating with the driving cam is provided on the inner wall of the mounting through hole. When the driving cam rotates, the driving pin moves along the cam groove track, driving the movable pull rod to move axially.

[0029] Furthermore, the cam groove of the driving cam is provided with a stabilizing slot for temporarily stabilizing the positioning of the ejector when the ejector is driven to move to a high point area.

[0030] Furthermore, a resistance spring is provided between the outer fixing sleeve and the connecting sleeve for providing a resistance force for the spreading arms.

[0031] Furthermore, the driving cam includes a cam body and a connecting rod, and the connecting rod is provided with a hanging ring for connecting with the conveyor chain hook.

[0032] Beneficial effects:

[0033] The ceramic stick blinds disclosed herein adopt a closed hollow structure and have good weather resistance and temperature control performance.

[0034] The cavity of the ceramic stick blinds disclosed herein is provided with a heat storage material for absorbing solar heat during the day and releasing latent heat at night, thereby adjusting the temperature difference between the inside and outside of the component and achieving temperature control.

[0035] The present invention adopts a mechanical expansion structure to drive the expansion arm to expand radially through a movable pull rod, thereby solving the problem that the ceramic stick louver is difficult to be stably positioned before glazing.

[0036] The present invention adopts a method of arranging a resisting flat plate at the end of the spreading arm, which solves the problem of the ceramic stick louver shaking and deflecting due to unstable support during the glazing process.

[0037] The present invention adopts an external airbag structure, which solves the problems of insufficient clamping stability and easy penetration of glaze during glazing by inflating the airbag to make it fit tightly with the inner wall of the louver installation groove.

[0038] Of course, any product implementing the present invention does not necessarily need to achieve all of the advantages described above at the same time. BRIEF DESCRIPTION OF THE DRAWINGS

[0039] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the following briefly introduces the drawings required for describing the embodiments. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0040] Figure 1 This is a structural diagram of a ceramic stick louver according to an embodiment of the present disclosure;

[0041] Figure 2 This is a schematic diagram of the processing of ceramic stick blinds according to an embodiment of the present disclosure;

[0042] Figure 3 This is a structural diagram of the clamping jaws according to an embodiment of the present disclosure;

[0043] Figure 4 This is a diagram of the internal structure of the clamping jaw according to an embodiment of the present disclosure;

[0044] Figure 5 This is a diagram of the mechanical expansion structure of an embodiment of the present disclosure;

[0045] Figure 6 This is a diagram of the internal parts of the mechanical support structure according to the embodiment of the present disclosure;

[0046] Figure 7 This is a structural diagram of the pull rod driving device according to an embodiment of the present disclosure;

[0047] Figure 8 This is a diagram of the cam structure of an embodiment of the present disclosure. DETAILED DESCRIPTION

[0048] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making any creative efforts shall fall within the scope of protection of the present invention.

[0049] like Figure 1 As shown, an active temperature-controlled assembled building material includes a ceramic stick louver 1. The ceramic stick louver 1 is hollow as a whole, with an elliptical cross-section and sealing blocks 11 at both ends. The ceramic stick louver 1 is provided with two louver mounting grooves 10, which are provided on the long axis side of the cross-section of the ceramic stick louver 1.

[0050] Two axially distributed reinforcing ribs 12 are provided inside the ceramic stick louver 1. By arranging two axially distributed reinforcing ribs 12 inside the ceramic stick louver 1, its overall structural strength and bending resistance are improved, and deformation or breakage caused by wind load or temperature difference during use is avoided; two radially distributed first supporting surfaces 13 and second supporting surfaces 14 are respectively provided on both sides of the louver mounting groove 10, which facilitates the installation of louver connecting components and further ensures the strength of the ceramic stick louver 1.

[0051] In some publications, a heat storage material is placed in the cavity formed by the ribs 12 of the ceramic blinds 1 to absorb solar heat during the day and release latent heat at night, thereby regulating the temperature difference between the inside and outside of the component and achieving active temperature control. The heat storage material can generally be a material with a high specific heat capacity or a phase change material.

[0052] Phase-change materials, such as fatty acids or salt hydrates, absorb heat when melted at high temperatures and release heat when solidified at low temperatures. They exhibit excellent thermal cycle stability and high latent heat capacity, effectively slowing component temperature changes and improving indoor thermal comfort. Alumina microcapsules or multi-stage phase-change composite thermal storage materials can also be used to enhance their thermal conductivity and stability, further improving the temperature control performance of building components and integrating energy conservation with functionality.

[0053] The louver connecting member is arranged in the louver mounting groove 10 and fixed by glue or friction extrusion. It can be a connecting bolt, a rotatable support arm or a mounting block with threaded holes.

[0054] The ceramic stick blinds 1 are installed in a modular assembly manner and can be arranged horizontally or vertically through prefabricated curtain wall keels or support frames, and are fixedly connected to the main structure of the building through snaps, slots or bolts;

[0055] The louver mounting groove 10 is used to embed functional louver components, which can be prefabricated and installed or adjusted and installed on site, and can be disassembled and replaced as needed; during use, by adjusting the arrangement angle of the ceramic sticks according to different climates, different shading angles or air flow channels can be formed to achieve active temperature control effects.

[0056] Ceramic stick blinds 1 are suitable for the external protective structures of various green energy-saving buildings, especially for curtain wall systems, external window shading systems or open atrium enclosures that require integrated shading, ventilation and temperature control; they are widely used in office buildings, high-end residences, educational buildings and public buildings.

[0057] The processing of the ceramic stick blinds 1 includes the following steps:

[0058] Extrusion: The clay is fed into an extruder and extruded into a hollow pottery stick body with an elliptical cross-section using a special die.

[0059] Cutting: Cut the ceramic stick blank to a fixed length according to the design specifications, and install sealing blocks 11 at both ends;

[0060] Open the shutter installation slot: Figure 2 As shown, two horizontal first incisions 101 and a second incision 102 are cut on the ceramic stick blind 1, and a vertical third incision 103 is provided between the first incision 101 and the second incision 102. The first incision 101, the second incision 102 and the third incision 103 cut out a first supporting surface 13 and a second supporting surface 14. The first supporting surface 13 and the second supporting surface 14 are bent inward along the first fold line 104 and the second fold line 105 respectively until the first supporting surface 13 and the second supporting surface 14 are perpendicular to each other with the reinforcing rib 12.

[0061] Drying treatment: Place the pottery stick body in a constant temperature drying room for pre-drying to control moisture.

[0062] Glazing treatment: glaze the outer surface of the pottery stick louver;

[0063] Sintering: The glazed pottery sticks are sent into a high-temperature kiln for sintering. The sintering temperature curve is controlled to ensure that the product size is stable and the glaze surface is dense and smooth.

[0064] It can be understood that when the heat storage material is a phase change material, sealing blocks 11 are provided at both ends of the ceramic rod louver 1 with a split structure. The sealing blocks 11 are installed after the processing of the ceramic rod louver 1 is completed, and the sealing blocks 11 can be installed and fixed by glue.

[0065] In some disclosures, the phase change material is provided with a sealed package, and the cross-section of the sealed package is the same as the cross-section of the cavity formed by the ceramic stick louver 1 through the reinforcing ribs 12. During installation, the phase change material is directly inserted into the cavity formed by the ceramic stick louver 1 through the reinforcing ribs 12, and then the sealing blocks 11 at both ends of the ceramic stick louver 1 are installed. In this way, the sealing and uniform distribution of the phase change material can be ensured to avoid stress concentration. The outer packaging of the phase change material can be made of plastic or lightweight metal; it can be understood that the phase change material can be provided with an additional independent package to facilitate installation.

[0066] In some disclosures, the glaze uses high reflectivity or infrared control functional glaze to improve the active temperature control performance of the material.

[0067] In some disclosures, in order to improve the glazing efficiency and the uniformity of glaze layer adhesion, an automated hanging conveying system is adopted, specifically including: clamping the ceramic stick louver 1 by a clamp, and driving the ceramic stick louver 1 to move continuously on the production line by a hanging chain, so that it passes through the glazing pool at the set position in turn, realizing automated glazing treatment, and forming a relatively thick and uniform glaze layer.

[0068] Because the ceramic stick louver 1 is provided with a louver mounting slot 10, during the conventional glazing process, glaze may seep into the hollow cavity through the gap in the slot, resulting in glaze waste, inconsistent product weight, and even affecting thermal control performance. To this end, during the glazing and transportation phase, a specially designed clamping mechanism 2 with an inflatable airbag structure is designed. This clamping mechanism 2 can be inserted into the louver mounting slot 10. By inflating the airbag, it forms an effective seal on the slot opening, simultaneously completing the clamping and positioning functions, ensuring a stable and reliable transportation process and effectively preventing glaze from entering the cavity, thereby improving product consistency and quality control.

[0069] like Figure 3-8 As shown, the clamping mechanism 2 includes a mechanical expansion structure 21 and an outer airbag structure 22, and the airbag structure 22 is wrapped around the mechanical expansion structure 21;

[0070] The mechanical expansion structure 21 includes a mounting base 211 on which a movable pull rod 210 is movably mounted. Four expansion arms 214 are provided below the mounting base 211 and are distributed in a circumferential manner.

[0071] An adjustment block 216 is installed at the lower end of the movable pull rod 210. The adjustment block 216 is provided with four circumferentially distributed pull rod installation grooves 217. One end of the expansion arm 214 is movably installed in the pull rod installation groove 217. The installation method can be hinged or movable shaft installation.

[0072] The mounting seat 211 is provided with four circumferentially distributed connecting rod mounting grooves 212, and a supporting connecting rod 213 is provided between the mounting seat 211 and the expansion arm 214. The two ends of the supporting connecting rod 213 are movably arranged in the middle position between the connecting rod mounting groove 212 and the expansion arm 214, and the connection method of the two ends of the supporting connecting rod 213 can be hinged or installed in the form of a shaft.

[0073] The ends of the expansion arms 214 are provided with contact flat plates 215. These plates can be integrally formed with the expansion arms 214 or installed via bolts or snap-fit connections. The outer surface of the contact flat plates 215 is covered with a soft layer made of an elastic material such as wear-resistant silicone, polyurethane elastomer, or EPDM, preferably silicone, which exhibits excellent elasticity, corrosion resistance, and high-temperature resistance. This soft layer provides cushioning, anti-slip, and protective properties when clamping the ceramic rod blind 1, preventing damage to the rod surface and improving clamping stability and airtightness.

[0074] During use, the clamping claw mechanism 2 is first inserted into the louver mounting slot 10 of the ceramic stick louver 1. By operating the mechanical expansion structure 21, the movable pull rod 210 drives the expansion arm 214 to expand outward, causing the flat plate 215 to contact the inner wall of the louver mounting slot 10, thereby achieving positioning and support for the louver mounting slot 10. Subsequently, the airbag structure 22 is inflated through an external air source, causing the airbag to expand and fit tightly against the inner wall of the louver mounting slot 10, thereby further enhancing the clamping stability and forming an effective seal. Through the dual effects of mechanical expansion and airbag expansion, the ceramic stick louver 1 can be reliably clamped during the glazing and transportation process and the glaze liquid can be prevented from seeping into the cavity, effectively ensuring the glazing quality and consistency of the finished product.

[0075] In some disclosures, in order to avoid deformation and damage of the ceramic stick louver 1 caused by the mechanical structure and airbag structure of the clamping mechanism 2, the airbag structure is set as multiple independent airbag structures to avoid stress concentration. At the same time, in order to improve the strength of the ceramic stick during the drying stage, kaolin, talcum powder and other mineral raw materials are added to the raw materials of the ceramic stick louver 1 to improve the stability of the mud material structure.

[0076] Furthermore, inorganic fibers, such as glass fibers, can be incorporated into the raw materials for the ceramic stick blinds 1 to enhance crack resistance. Furthermore, by controlling the drying speed and humidity, and adopting a phased, slow-drying process, shrinkage stress and cracking risks caused by moisture gradients can be reduced. This ensures that the ceramic sticks possess a certain degree of mechanical strength and shape stability before sintering, facilitating subsequent handling, glazing, or assembly operations, and reducing breakage during processing.

[0077] In some publications, such as Figure 3 、 Figure 4 As shown, the airbag structure 22 includes an upper sealing part 221 and a lower ball part 222; the upper sealing part 221 is square as a whole, matching the interface shape of the louver mounting groove 10, so that the sealing can be better completed after inflation; the lower ball part 222 is spherical as a whole, so that a higher local pressure can be obtained after inflation to ensure the reliable clamping reliability of the ceramic stick louver 1 during the glazing and transportation process.

[0078] like Figure 4 、 Figure 7 、 Figure 8 In some embodiments, the movable pull rod 210 is driven by a pull rod driving device 3 .

[0079] The pull rod driving device 3 includes a connecting sleeve 31, an outer fixing sleeve 32, and a driving cam 33. The connecting sleeve 31 is movably installed in the outer fixing sleeve 32, and the driving cam 33 is arranged in the connecting sleeve 31.

[0080] A mounting hole 311 is defined in the connecting sleeve 31. One end of the movable pull rod 210 is fixedly mounted in the mounting hole 311. A driving cam 33 is disposed in the mounting hole 311. A driving pin 313 cooperating with the driving cam 33 is disposed on the inner wall of the mounting hole 311. A guide groove 312 is disposed on the side of the connecting sleeve 31.

[0081] The lower end of the outer fixing sleeve 32 is fixed to the mounting seat 211. A connecting sleeve mounting groove 321 is defined in the outer fixing sleeve 32. The connecting sleeve 31 is movably mounted in the connecting sleeve mounting groove 321. Guide ejector pin mounting grooves 322 are defined on both sides of the outer fixing sleeve 32. Guide ejector pins 323 are mounted in the guide ejector pin mounting grooves 322. The guide ejector pins 323 are disposed in the guide grooves 312.

[0082] The driving cam 33 includes a cam body 331 and a connecting rod 332. The connecting rod 332 passes through the upper end of the outer fixing sleeve 32, and the connecting rod 332 and the outer fixing sleeve 32 are rotatably fixed axially by a first fixing ring 3321 and a second fixing ring 3322. The first fixing ring 3321 and the second fixing ring 3322 can be a retaining ring or a nut, an interference fixing ring, etc.

[0083] A hanging ring 3323 is provided at the upper end of the connecting rod 332, and the hanging ring 3323 is used for quickly connecting with a hook on the transport chain.

[0084] The cam body 331 is provided with a cam groove 3311. Below the low point of the cam groove 3311 is a mounting opening 3112 for easy assembly and maintenance. Below the high point of the cam groove 3311 is a stabilizing slot 3113. When the driving pin 313 moves to the high point area, it can temporarily stabilize the position and prevent the clamping mechanism from loosening due to chain vibration.

[0085] The driving ejector pin 313 is movably disposed in the cam groove 3311 . When the driving cam 33 rotates, the driving ejector pin 313 moves along the trajectory of the cam groove 3311 , thereby driving the movable pull rod 210 to perform axial movement, thereby realizing the opening or closing of the expansion arm 214 .

[0086] In some disclosures, a resistance spring 314 is provided between the outer fixing sleeve 32 and the connecting sleeve 31 to provide elastic reset force. The resistance spring 314 drives the expansion arm 214 to open, and the spring characteristics prevent the expansion arm 214 from causing damage to the inner wall of the louver mounting groove 10 due to excessive resistance force.

[0087] Throughout this specification, references to terms such as "one embodiment," "example," or "specific example" indicate that the specific features, structures, materials, or characteristics described in conjunction with that embodiment or example are included in at least one embodiment or example of the present invention. In this specification, schematic representations of these terms do not necessarily refer to the same embodiment or example. Furthermore, the specific features, structures, materials, or characteristics described may be combined in any suitable manner in any one or more embodiments or examples.

[0088] The preferred embodiments of the present invention disclosed above are intended only to help illustrate the present invention. These preferred embodiments do not exhaustively describe all details, nor do they limit the present invention to the specific embodiments described. Obviously, many modifications and variations are possible based on the content of this specification. These embodiments are selected and described in detail in this specification to better explain the principles and practical applications of the present invention, thereby enabling those skilled in the art to better understand and utilize the present invention. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. An active temperature-controlled assembled building material, characterized in that: The ceramic stick louver is hollow as a whole, with an elliptical cross section, and sealing blocks are provided at both ends. The ceramic stick louver is provided with two louver mounting slots, and the louver mounting slots are provided on the long axis side of the ceramic stick louver cross section; Two axially distributed reinforcing ribs are provided in the ceramic stick louver, and two radially distributed first supporting surfaces and second supporting surfaces are respectively provided on both sides of the louver mounting groove.

2. The active temperature control assembled building material according to claim 1, characterized in that: The ceramic stick blinds are installed in a modular assembly manner, arranged horizontally or vertically through prefabricated curtain wall keels or support frames, and fixedly connected to the main structure of the building through snaps, slots or bolts. The ceramic stick blinds are provided with heat storage materials in the cavity formed by the reinforcing ribs, which are used to absorb solar heat during the day and release latent heat at night, thereby adjusting the temperature difference between the inside and outside of the components and achieving temperature control.

3. The active temperature control assembled building material according to claim 1, characterized in that: The ceramic stick blinds processing steps include: Extrusion: The clay is fed into an extruder and extruded into a hollow pottery stick body with an elliptical cross-section using a special die. Cutting: The ceramic stick body is cut to a fixed length and sealing blocks are installed at both ends; Opening a louver installation slot: cutting two horizontal first incisions and a second incision on the ceramic stick louver, with a vertical third incision provided between the first incision and the second incision, cutting out a first supporting surface and a second supporting surface through the first incision, the second incision, and the third incision, respectively bending the first supporting surface and the second supporting surface inward along the first fold line and the second fold line until the first supporting surface and the second supporting surface are perpendicular to the reinforcing rib; Drying treatment: Place the pottery stick body in a constant temperature drying room for pre-drying to control moisture; Glazing treatment: glaze the outer surface of the pottery stick louver; Sintering: The glazed pottery sticks are sent into a high-temperature kiln for sintering. The sintering temperature curve is controlled to ensure that the product size is stable and the glaze surface is dense and smooth.

4. An active temperature-controlled assembled building material processing equipment, characterized in that: The equipment is used to process the active temperature-controlled prefabricated building material described in claim 3. The processing equipment includes a clamping mechanism, which includes a mechanical expansion structure and an external airbag structure. The airbag structure is wrapped around the mechanical expansion structure.

5. The active temperature control assembled building material processing equipment according to claim 4, characterized in that: The mechanical expansion structure includes a mounting base, a movable pull rod and a plurality of expansion arms distributed in a circumference; A movable pull rod is movably mounted on the mounting seat, and a plurality of spreading arms are provided below the mounting seat; The lower end of the movable pull rod is connected to an adjustment block, which is provided with a plurality of pull rod mounting slots, and one end of the expansion arm is movably mounted in the corresponding pull rod mounting slot; The mounting seat is provided with a connecting rod mounting groove, the middle part of the expansion arm is connected to the mounting seat through a supporting connecting rod, and the two ends of the supporting connecting rod are movably arranged in the connecting rod mounting groove and the middle part of the expansion arm respectively; A contact plane plate is provided at the end of each spreading arm, and the outer side of the contact plane plate is covered with a soft layer for contacting and clamping with the inner wall of the louver mounting groove of the ceramic stick louver.

6. The active temperature control assembled building material processing equipment according to claim 5, characterized in that: The outer airbag structure includes an upper sealing portion and a lower ball portion, the upper sealing portion is a square structure, and the lower ball portion is a spherical structure.

7. The active temperature-controlled assembled building material processing equipment according to claim 5, characterized in that: The movable pull rod is driven by a pull rod driving device, which includes a connecting sleeve, an outer fixed sleeve and a driving cam; The connecting sleeve is movably installed in the outer fixing sleeve, and the lower end of the outer fixing sleeve is fixed on the mounting seat; The driving cam is arranged inside the connecting sleeve, and the connecting sleeve is provided with a mounting through hole, and one end of the movable pull rod is fixedly installed in the mounting through hole; A driving pin cooperating with the driving cam is provided on the inner wall of the mounting through hole. When the driving cam rotates, the driving pin moves along the cam groove track, driving the movable pull rod to move axially.

8. The active temperature-controlled assembled building material processing equipment according to claim 7, characterized in that: The cam groove of the driving cam is provided with a stabilizing slot for temporarily stabilizing the positioning of the ejector pin when the ejector pin is driven to move in a high point area.

9. The active temperature-controlled assembled building material processing equipment according to claim 7, characterized in that: A resistance spring is provided between the outer fixing sleeve and the connecting sleeve for providing a resistance force for the spreading arm.

10. The active temperature-controlled assembled building material processing equipment according to claim 7, characterized in that: The driving cam comprises a cam body and a connecting rod. The connecting rod is provided with a hanging ring for connecting with a conveyor chain hook.

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