Construction method of earthenware brick panel overhanging type guardrail

The construction method of cantilevered guardrails made of ceramic tiles resolves the contradiction between structural redundancy and aesthetic simplicity in existing guardrail structures, providing a lightweight, beautiful, and environmentally friendly guardrail solution suitable for diverse building needs.

CN120797910AActive Publication Date: 2025-10-17THE THIRD CONSTR OF CHINA CONSTR EIGHTH ENG BUREAU
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Patent Information

Application Number
CN202511042599.X
Authority / Receiving Office
CN · China
Patent Type
Applications(China)
Current Assignee / Owner
Filing Date
2025-07-28
Publication Date
2025-10-17
Estimated Expiration
2045-07-28

AI Technical Summary

Technical Problem

The existing guardrail structure is in conflict between structural redundancy and aesthetic simplicity. Traditional masonry guardrails are too heavy and have a long construction period. Metal frames are prone to corrosion and have high maintenance costs. Precast concrete hanging plate guardrails have significant root bending moments when cantilevered, resulting in high overall costs.

Method used

The cantilevered guardrail with ceramic tile panels is adopted. By installing adapters, columns and transverse frames on the main structure, using ceramic tile steel pipes and decorative profiles, combined with fluorocarbon spraying treatment, a light and beautiful guardrail system is formed.

Benefits of technology

A lightweight, beautiful, and environmentally friendly guardrail structure is achieved, which is quick to install and detachable to meet personalized design needs. The ceramic brick material is not easy to corrode, the overall load requirement is low, and the construction period is short.

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Abstract

The invention provides a construction method of a ceramic tile panel overhanging type guardrail, which comprises the following steps of: firstly, mounting adapters on a main body structure, then connecting each upright post with the corresponding adapters, mounting transverse frameworks at the bottoms, the middle parts and the tops of the upright posts, mounting ceramic tile steel pipes on the transverse frameworks at the bottoms, and then spraying fluorocarbon, so as to form the ceramic tile panel overhanging type guardrail. Decorative profiles are wrapped outside the stand columns, the lower-layer transverse framework and the middle transverse framework, then earthenware bricks are hung on earthenware brick steel pipes in a stringing mode and limited and fixed through long pins, and finally decorative profiles on the periphery of the upper-layer transverse framework are installed. The earthenware bricks hung in series serve as a main body to form a safe and stable guardrail system, the whole earthenware bricks are light and convenient and fast to assemble and disassemble, the guardrail can present different visual effects, and the earthenware bricks are made of environment-friendly high-strength inorganic materials, are free of pollution to human bodies and the environment and are not prone to corrosion.
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Description

TECHNICAL FIELD

[0001] The application belongs to the technical field of ceramic brick guardrail installation, and particularly relates to a construction method of a ceramic brick panel cantilever type guardrail. BACKGROUND

[0002] The guardrail is a kind of building structure for safety protection and decoration, which is used for enclosing and protecting the edges of balcony, staircase, corridor and the like to prevent people from accidentally falling. The current mainstream guardrail structures include three kinds of traditional masonry type guardrail, metal frame + filling plate type guardrail and prefabricated concrete hanging plate guardrail, which can realize the protection function, but all have the following problems: The traditional masonry type guardrail is integrally built by bricks or concrete, has a heavy structure and needs foundation support, has a large self-weight, and is high in load requirement for the building structure; the construction period is long, needs on-site wet work, and is poor in environmental protection; the shape is single, and it is difficult to realize the light aesthetics pursued by modern buildings.

[0003] The metal frame + filling plate type guardrail takes steel structure / aluminum alloy as a skeleton, fills glass, metal plate or wooden plate, and is commonly seen in modern buildings, but the metal skeleton is easy to corrode (especially in coastal or high humidity environment), and is high in maintenance cost; rigid connection causes stress concentration, and the welding seam or bolt is easy to loosen after long-term use; the filling plate relies on external fixing members, and there is redundant support structure in vision.

[0004] The prefabricated concrete hanging plate guardrail suspends the concrete plate on the main structure through a pre-embedded part, reduces part of the weight, but the plate thickness is large (usually greater than or equal to 80 mm), and the root bending moment is significant when cantilevered; an additional decoration layer (such as paint, veneer) is needed on the surface, and the comprehensive cost is high.

[0005] As can be seen, the existing guardrail structures generally face the contradiction between "structural redundancy" and "aesthetic simplicity", and the above technical problems have not been solved, and the application designs a ceramic brick panel cantilever type guardrail. SUMMARY

[0006] In view of the deficiencies in the prior art, the application provides a construction method of a ceramic brick panel cantilever type guardrail, which effectively solves the problems existing in the traditional guardrail structure.

[0007] The application achieves the above technical purpose through the following technical means.

[0008] A construction method of a ceramic brick panel cantilever type guardrail, including the following processes: Step 1: installing a plurality of adapters on the main structure at the guardrail installation position, and welding and fixing the adapters with pre-embedded parts pre-embedded in the main structure; Step 2: installing a vertical column on the adapter, and installing a horizontal skeleton on the vertical column; Step 3: installing a ceramic brick steel pipe on the horizontal skeleton; Step 4: fluorocarbon spray painting; Step 5: installing the outer package decoration profile on the column and part of the transverse framework; Step 6: hanging the ceramic tile on the ceramic tile steel pipe; Step 7: installing the outer package decoration profile on the top layer transverse framework of the guardrail.

[0009] Further, in step 2, when the column is installed, each column is welded and fixed with the adapter at the corresponding position, and the column installation is performed from one side to the other side, and the verticality and spatial positioning control of the column are performed at the same time; The transverse framework includes a lower layer of galvanized steel pipe, a middle steel plate and an upper layer of steel plate; the lower layer of galvanized steel pipe is welded at the bottom of the column, the middle steel plate is welded at the middle of the column, and the upper layer of steel plate is welded at the top of the column; the middle steel plate serves to block the gap between the ceramic tile and the floor to prevent the person from walking off the ground; the lower layer of galvanized steel pipe, the middle steel plate and the upper layer of steel plate are arranged along the length to connect multiple columns in a row.

[0010] Further, the specific process of step 3 is as follows: The position of the ceramic tile steel pipe is determined by positioning the wire on the lower layer of galvanized steel pipe, the ceramic tile steel pipe is cut according to the required length on the drawing in advance, and then the ceramic tile steel pipe is welded vertically on the lower layer of galvanized steel pipe according to the layout position, and the distance between the top of the ceramic tile steel pipe and the lower surface of the upper layer of steel plate is greater than or equal to the height of a ceramic tile.

[0011] Further, the specific process of step 6 is as follows: The ceramic tile with a mounting hole is sequentially hung on the ceramic tile steel pipe from bottom to top, and the adjacent two ceramic tiles are separated by a spacer; when the ceramic tile is installed to the top layer, the installer first places the ceramic tile and temporarily holds it with his hand to ensure that the centers of the holes on the ceramic tile and the ceramic tile below are on the same vertical line, and then a long pin is sequentially inserted through the upper layer of steel plate, the ceramic tile on the top layer, and the spacer until the long pin is inserted into the limiting block in the ceramic tile steel pipe, so that the entire ceramic tile steel pipe is fixed.

[0012] Further, the specific process of step 7 is as follows: The outer package decoration profile is placed on the upper layer of steel plate, and the outer package decoration profile and the upper layer of steel plate are separated by a spacer and rubber skin, then the outer package decoration profile is fixed on the upper layer of steel plate from below the upper layer of steel plate by using a bolt, and the bolt is hidden by installing a decoration profile cover below, the outer package decoration profile is closed, and then the gap between the outer side of the outer package decoration profile and the upper layer of steel plate is sealed by using sealant.

[0013] Further, the specific process of step 5 is as follows: First, the outer packaging decorative profile of the column is installed, and then the lower galvanized steel pipe of the transverse framework and the outer packaging decorative profile of the middle steel plate are installed; flexible gaskets are used to separate the contact parts of the steel materials during the installation of the outer packaging decorative profile to prevent bimetallic corrosion.

[0014] Further, in step 4, the adapter, the column, the ceramic brick steel pipe and the upper steel plate are subjected to fluorocarbon spraying treatment, and the same color is ensured; the fluorocarbon spraying raw material uses epoxy zinc-rich primer + epoxy cloud iron intermediate paint + fluorocarbon topcoat.

[0015] The present application has the following beneficial effects: Aesthetic appearance: the appearance of the ceramic brick guardrail has diversity and bright colors, which can meet the style and needs of different buildings, making the overall building more aesthetic and atmospheric; the use of ceramic brick materials makes the guardrail present a different visual effect, meeting the personalized design needs.

[0016] Structure of the ceramic brick guardrail: the guardrail system is composed of a steel framework and ceramic brick materials, forming a safe and stable guardrail system, and the whole is light, the load requirement of the building structure is not high, the thickness of the plate is not large, and the root bending moment is not large when cantilevered.

[0017] Easy to install: the ceramic brick guardrail of the present application can be directly installed on the building wall surface, without the need for a concrete foundation, the column and guardrail framework and other components can be pre-made, and the on-site construction only needs to be welded with the adapter and then hung with the ceramic brick, so the installation process is convenient and fast, and the guardrail can be conveniently disassembled and replaced after installation, and the construction period is shorter.

[0018] Environmentally friendly: ceramic bricks are an environmentally friendly decorative material made of natural minerals and inorganic materials, and do not contain any harmful substances and chemical additives, and are pollution-free to the human body and the environment.

[0019] Good corrosion resistance: ceramic bricks are made of high-strength inorganic materials and are not easily corroded, and can maintain the aesthetic appearance, durability and stability of the appearance for a long time.

[0020] Good aesthetic appearance: the outer periphery of the steel frame is wrapped with aluminum alloy decorative profiles, and the fixing parts are hidden, so there is no redundant support structure in vision, and the aesthetic appearance is good.

[0021] The present application is suitable for the installation of various guardrails, especially for the requirements of diversified, aesthetic and environmentally friendly guardrails. Through the research and application of the ceramic brick guardrail and its construction method, a new, environmentally friendly and diversified guardrail system is provided for the building industry in China. BRIEF DESCRIPTION OF DRAWINGS

[0022] Figure 1 It is a vertical section view of the ceramic brick panel cantilever guardrail according to the present application. Figure 2 It is a vertical section view of the ceramic brick panel cantilever guardrail according to the present application.Figure 1 Enlarged view of part A; Figure 3 Cross-sectional view of the cantilever guardrail of the ceramic brick panel according to the present application; Figure 4 Elevation view of the cantilever guardrail of the ceramic brick panel according to the present application.

[0023] In the figure: 1 - adapter; 2 - embedded part; 3 - upright column; 4 - horizontal skeleton; 401 - lower galvanized steel pipe; 402 - middle steel plate; 403 - upper steel plate; 5 - ceramic brick steel pipe; 6 - outer packaging decorative profile; 7 - ceramic brick; 8 - long pin; 9 - cushion block; 10 - rubber rubber; 11 - bolt; 12 - decorative profile cover; 13 - sealing glue. DETAILED DESCRIPTION

[0024] The present application will be further described below in conjunction with the drawings and specific examples, but the scope of protection of the present application is not limited thereto.

[0025] The construction method of the cantilever guardrail of the ceramic brick panel according to the present application comprises the following processes: Step 1: installation of adapter 1; Referring to Figure 1 , the adapter 1 is preferably a galvanized steel pipe with a cross-sectional size of 100x50x5mm, the length of the adapter 1 is determined according to the drawing, and the adapter 1 is welded and fixed at one end to the embedded part 2 on the building structure.

[0026] Step 2: installation of guardrail skeleton, the guardrail skeleton comprising upright columns 3 and horizontal skeletons 4; Referring to Figure 1 , 2 , Each upright column 3 is welded and fixed at the other end to the corresponding adapter 1, and the adapter 1 is a force receiving member capable of transferring the weight of the entire guardrail to the main structure; the installation of the upright columns 3 is carried out from one side to the other side, and the verticality and spatial positioning of the upright columns 3 are controlled during installation.

[0027] After the installation of the upright columns 3 is completed, the horizontal skeleton 4 of the guardrail is installed, the horizontal skeleton 4 comprising a lower galvanized steel pipe 401, a middle steel plate 402 and an upper steel plate 403; wherein the lower galvanized steel pipe 401 is welded and fixed at the bottom of the upright column 3, the middle steel plate 402 is welded and fixed at the middle of the upright column 3, and the upper steel plate 403 is welded and fixed at the top of the upright column 3; the middle steel plate 402 serves to block the gap between the ceramic brick 7 and the floor slab, preventing people from stepping on the gap, and stabilizing the entire guardrail system; the lower galvanized steel pipe 401, the middle steel plate 402 and the upper steel plate 403 are arranged along the length, and together connect a plurality of upright columns 3 in a row.

[0028] In this embodiment, preferably, the lower galvanized steel pipe 401 has a cross-sectional size of 30x240x4mm, the middle steel plate 402 has a size of 95x20mm, and the upper steel plate 403 has a thickness of 12mm; the upright column 3 is made of a galvanized steel pipe with a cross-sectional size of 100x50x5mm.

[0029] In the above installation process, symmetrical welding is used during welding to reduce deformation caused by welding; after welding is completed, the welding quality is checked to be qualified, all welding points and welds are cleaned of slag, and two anti-rust treatments are performed.

[0030] Step 3: Installation of the ceramic brick steel pipe 5; Referring to Figure 1 , 3 , the position of the ceramic brick steel pipe 5 is determined by positioning and laying a line on the lower galvanized steel pipe 401, the ceramic brick steel pipe 5 is cut to the required length according to the drawing in advance, and then the ceramic brick steel pipe 5 is vertically welded on the lower galvanized steel pipe 401 according to the layout position, and the distance between the top of the ceramic brick steel pipe 5 and the lower surface of the upper steel plate 403 should be greater than or equal to the height of one ceramic brick 7, so that the topmost ceramic brick 7 can be freely hung and placed during subsequent installation; the ceramic brick steel pipe 5 preferably uses a round steel pipe with an outer diameter of 30mm and a wall thickness of 4mm.

[0031] Step 4: Fluorocarbon spraying; The adapter 1, the upright column 3, the ceramic brick steel pipe 5, and the upper steel plate 403 are subjected to fluorocarbon spraying treatment, and the same color is ensured; the fluorocarbon spraying raw material uses epoxy zinc-rich primer + epoxy cloud iron intermediate paint + fluorocarbon topcoat.

[0032] Step 5: Installation of the outer wrapping decorative profile 6 on the upright column 3 and the horizontal skeleton 4; First, the outer wrapping decorative profile 6 on the upright column 3 is installed, and then the outer wrapping decorative profile 6 on the lower galvanized steel pipe 401 and the middle steel plate 402 of the horizontal skeleton 4 is installed; flexible gaskets are used to separate the contact parts of the outer wrapping decorative profile 6 and the steel material during installation to prevent bimetallic corrosion; the use of the outer wrapping decorative profile 6 can ensure the aesthetic appearance of the guardrail as a whole.

[0033] Step 6: Hanging ceramic bricks 7; Referring to Figure 1 , 3, 4, the ceramic brick 7 with mounting hole is placed on the ceramic brick steel pipe 5, the ceramic brick 7 is installed from bottom to top, ceramic brick 7 is successively penetrated into the ceramic brick steel pipe 5, and the upper and lower two adjacent ceramic bricks 7 are separated by the spacer 9 (the spacer 9 also has a hole, and is also sleeved and installed on the ceramic brick steel pipe 5), the ceramic brick 7 is placed carefully and slowly to avoid breakage; when the ceramic brick 7 is installed to the top layer, the installer places the ceramic brick 7, temporarily holds the ceramic brick 7 with hand, ensures that the hole on the ceramic brick 7 and the center of the hole on the ceramic brick 7 below are on the same vertical line, then successively penetrates the long pin 8 through the upper layer steel plate 403 (previously having a hole), the top ceramic brick 7, the spacer 9, until the long pin 8 is pinned into the limiting block (the limiting block is a circular steel plate structure with a circular hole in the center of the ceramic brick steel pipe 5, for limiting the activity of the long pin 8) in the ceramic brick steel pipe 5, so that the whole ceramic brick steel pipe 5 is fixed, and the ceramic brick 7 is ensured not to be tilted.

[0034] In the embodiment, preferably, the ceramic brick 7 is 240*115*50, two holes are opened on the ceramic brick 7, and the hole diameter is 32mm.

[0035] Step 7: the outer package decorative profile 6 on the handrail (i.e. the upper layer steel plate 403) is installed. Referring to Figure 2 , 4 The outer package decorative profile 6 is placed on the upper layer steel plate 403, and the spacer 9 and the rubber rubber 10 are used between the outer package decorative profile 6 and the upper layer steel plate 403, then the outer package decorative profile 6 is fixed on the upper layer steel plate 403 from below the upper layer steel plate 403 by using the bolt 11, and the decorative profile cover 12 is installed below to hide the bolt 11 fixing the outer package decorative profile 6, seal the outer package decorative profile 6, and then seal the gap between the outer side of the outer package decorative profile 6 and the upper layer steel plate 403 by using the sealant 13.

[0036] The embodiment is a preferred embodiment of the application, but the application is not limited to the above-mentioned embodiment, any obvious improvement, replacement or modification made by those skilled in the art without departing from the essential content of the application belongs to the protection scope of the application.

Claims

1. A construction method for a cantilevered guardrail made of ceramic tiles, characterized in that: The process includes the following: Step 1: Install multiple adapters (1) on the main structure at the guardrail installation position, and the adapters (1) are all welded and fixed to the embedded parts embedded in the main structure; Step 2: Install the column (3) on the adapter (1), and install the transverse frame (4) on the column (3); Step 3: Install the ceramic brick steel pipe (5) on the transverse frame (4); Step 4: Fluorocarbon spraying; Step 5: Install the outer decorative profiles (6) on the columns (3) and part of the transverse frame (4); Step 6: Hang ceramic tiles (7) on the ceramic tile steel pipe (5); Step 7: Install the outer decorative profile (6) on the top horizontal frame (4) of the guardrail.

2. The construction method of the ceramic tile panel cantilever guardrail according to claim 1 is characterized in that: In step 2, when installing the columns (3), each column (3) is welded and fixed to the adapter (1) at the corresponding position, and the columns (3) are installed from one side to the other, and the verticality and spatial positioning are controlled simultaneously during the installation; The transverse skeleton (4) includes a lower galvanized steel pipe (401), a middle steel plate (402), and an upper steel plate (403); the lower galvanized steel pipe (401) is welded to the bottom of the column (3), the middle steel plate (402) is welded to the middle of the column (3), and the upper steel plate (403) is welded to the top of the column (3). The middle steel plate (402) is used to block the gap between the ceramic brick (7) and the floor slab to prevent people from stepping on empty space. The lower galvanized steel pipe (401), the middle steel plate (402), and the upper steel plate (403) are all arranged throughout the length to connect a row of columns (3).

3. The construction method of the ceramic tile panel cantilever guardrail according to claim 2, characterized in that: The specific process of step 3 is as follows: The position of the ceramic brick steel pipe (5) is determined by positioning and laying out on the lower galvanized steel pipe (401), and the ceramic brick steel pipe (5) is cut in advance according to the required length on the drawing. Then, the ceramic brick steel pipe (5) is vertically welded to the lower galvanized steel pipe (401) according to the laid-out position, and the distance between the top of the ceramic brick steel pipe (5) and the lower surface of the upper steel plate (403) is greater than or equal to the height of a ceramic brick (7).

4. The construction method of the ceramic tile panel cantilever guardrail according to claim 3 is characterized in that: The specific process of step 6 is as follows: The ceramic bricks (7) with mounting holes are sequentially placed on the ceramic brick steel pipe (5) from bottom to top, and the upper and lower adjacent ceramic bricks (7) are separated by a spacer (9). When installing the ceramic brick (7) on the top layer, the installer first places the ceramic brick (7) and temporarily holds it with his hands to ensure that the hole on the ceramic brick (7) and the center of the hole on the ceramic brick (7) below it are on the same vertical line, and then uses a long pin (8) to sequentially pass through the upper steel plate (403), the ceramic brick (7) on the top layer, and the spacer (9) until the long pin (8) is pinned into the limit block in the ceramic brick steel pipe (5).

5. The construction method of the ceramic tile panel cantilever guardrail according to claim 2, characterized in that: The specific process of step 7 is as follows: A spacer (9) and a rubber sheet (10) are used to separate the outer decorative profile (6) and the upper steel plate (403), and then the outer decorative profile (6) is fixed to the upper steel plate (403) from below the upper steel plate (403) using a bolt (11), and a decorative profile buckle cover (12) is installed to conceal the bolt (11), and the outer decorative profile (6) is closed. Then, a sealant (13) is injected into the gap between the outer side of the outer decorative profile (6) and the upper steel plate (403) to seal it.

6. The construction method of the ceramic tile panel cantilever guardrail according to claim 2, characterized in that: The specific process of step 5 is as follows: First, the outer decorative profile (6) of the column (3) is installed, and then the outer decorative profile (6) of the lower galvanized steel pipe (401) and the middle steel plate (402) are installed; when the outer decorative profile (6) is installed, the contact part with the steel is separated by a flexible gasket to prevent bimetallic corrosion.

7. The construction method of the ceramic tile panel cantilever guardrail according to claim 2, characterized in that: In step 4, the adapter (1), the column (3), the ceramic steel pipe (5), and the upper steel plate (403) are subjected to fluorocarbon spraying treatment, and the same color is ensured.

Citation Information

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