Electromechanical pipeline preassembly splicing wall

Abstract

The utility model relates to the technical field of medical buildings, in particular to an electromechanical pipeline preassembly splicing wall which comprises a pair of main wall bodies vertically arranged in a spaced mode and side wall bodies arranged between the main wall bodies, the side wall bodies are oppositely arranged between the main wall bodies in a clamped mode, and sealing plates are arranged on the surfaces of the main wall bodies and the tops of the side wall bodies. The main wall body and the side wall bodies are provided with connecting holes allowing the connecting fasteners to penetrate through, and the main wall body, the side wall bodies and the sealing plates are connected through the connecting fasteners. An equipment pipeline preformed hole is formed in the main wall body and used for allowing an equipment pipeline outside the wall to penetrate through; an electromechanical pipeline reserved hole channel is formed in the main wall body, and an electromechanical pipeline reserved hole is formed in the side wall body and used for allowing an electromechanical pipeline to penetrate through. The wall system has excellent heat preservation, sound insulation, fire prevention and other performance, the flexibility and adjustability of the height are achieved through modular design, and the diversified requirements of different medical buildings for functionality and attractiveness can be met.

Description

Technical Field

[0001] The present application relates to the field of medical building technology, and in particular to a pre-assembled spliced ​​wall for electromechanical pipelines. Background Art

[0002] With the rapid advancement of global medical technology and the significant increase in public health awareness, modern healthcare architecture faces unprecedented challenges and opportunities. Medical facilities must not only provide advanced diagnostic and treatment technologies and services, but also ensure a comfortable and safe treatment environment to meet growing medical needs. Against this backdrop, innovation and optimization of healthcare building design and construction technologies are urgently needed, particularly in areas such as optimized spatial layout, efficient equipment integration, improved construction efficiency, and precise environmental control.

[0003] Traditional medical building walls are often constructed using on-site masonry or cast-in-place methods, while the installation of mechanical and electrical pipelines generally relies on tedious wet-work processes such as on-site grooving, piping, and wiring. This traditional construction model has numerous drawbacks: First, the long construction period not only increases project costs but also delays the commissioning of medical facilities. Second, the noise, dust, and other pollutants generated during construction pose a serious threat to the cleanliness of the medical environment, potentially directly or indirectly affecting patients' treatment outcomes and recovery progress. Third, on-site quality control is difficult, making installation errors and safety hazards prone to occur, posing a potential threat to the long-term stable operation of medical facilities.

[0004] To address these challenges, both within and outside the industry are actively exploring more efficient, environmentally friendly, and safer construction solutions for healthcare buildings. Prefabricated MEP piping technology, with its unique advantages, has gradually attracted widespread attention within the industry. This technology precisely assembles MEP piping and prefabricated wall units in the factory to form standardized modules, which are then transported to the construction site for rapid assembly and installation. This construction method not only significantly reduces on-site wet work and effectively reduces noise, dust, and other pollution, but also significantly improves construction efficiency and quality control, providing a cleaner, safer, and more efficient spatial environment for healthcare buildings.

[0005] However, while some prefabricated wall products are currently available on the market, most focus on achieving a single function and lack customized designs tailored to the specific needs of medical buildings. Therefore, developing a prefabricated, spliced ​​wall system for mechanical and electrical wiring in medical buildings that combines efficient construction, precise layout, modular installation, and environmental friendliness has become a pressing technical challenge for the industry. Utility Model Content

[0006] In order to overcome the shortcomings of the existing technology, this application provides a pre-assembled spliced ​​wall for electromechanical pipelines, aiming to improve construction efficiency and quality, reduce noise, dust and other pollution during the construction process, and create a more comfortable and safe treatment and rehabilitation environment for medical buildings.

[0007] The technical means adopted by the utility model to solve its technical problems are: a pre-assembled splicing wall for electromechanical pipelines, the improvement of which is that it comprises: a pair of main walls arranged vertically at intervals and side walls arranged between the main walls, the side walls are relatively sandwiched between the main walls, the main wall surfaces and the side wall tops are provided with sealing plates, the main walls and the side walls are provided with connecting holes for connecting fasteners to pass through, the main walls and the side walls and the sealing plates are connected by the connecting fasteners; the main walls are provided with reserved holes for equipment pipelines for passing through the wall equipment pipelines; the main walls are provided with reserved channels for electromechanical pipelines, and the side walls are provided with reserved holes for electromechanical pipelines for passing through.

[0008] The main wall and side wall described in the above technical solution are both three-layer structures, which are respectively composed of a glass magnesium board, a sealing layer and a light steel keel thermal insulation and sound insulation layer from the outside to the inside. The glass magnesium board and the sealing layer and the light steel keel thermal insulation and sound insulation layer are staggeredly connected, and connection holes for the connection fasteners to pass through are reserved on the protruding glass magnesium board and the protruding sealing layer and the light steel keel thermal insulation and sound insulation layer respectively; the staggered connection protruding positions of the glass magnesium board and the sealing layer and the light steel keel thermal insulation and sound insulation layer on the side wall are arranged in a mirror-symmetrical manner with the corresponding parts of the main wall.

[0009] The sealing plate material in the above technical solution is glass magnesium strips to enhance the sealing and waterproof performance between the light steel keel insulation and sound insulation layer, the sealing layer, the protruding edge position and the main wall and side wall.

[0010] The shapes of the equipment pipeline reserved holes and the electromechanical pipeline reserved channels described in the above technical scheme include but are not limited to horizontal straight channels, vertical straight channels, cross-shaped channels, horizontal one-to-two (multiple) channels, horizontal two (multiple)-to-one channels, vertical one-to-two (multiple) channels, vertical two (multiple)-to-one channels, left-upper corner channels, left-lower corner channels, right-upper corner channels, and right-lower corner channels.

[0011] In the above technical solution, an electromechanical pipeline assembly connector is provided on the inner wall of the reserved hole for the electromechanical pipeline. The electromechanical pipeline assembly connector is in a "Y" shape. One end of the electromechanical pipeline assembly connector is threadedly connected to the reserved hole for the electromechanical pipeline, and the other end is used to fix the electromechanical pipeline.

[0012] The connecting fastener described in the above technical solution is a bolt assembly with adjustable length, including a bolt rod, a fastening nut and a fixing head located at both ends of the bolt rod, wherein the fixing head is designed as a flange matching the shape of the connecting hole so that it can fit tightly with the connecting hole during tightening, thereby enhancing the stability of the wall structure.

[0013] The above technical solution also includes at least one reinforcing support structure, which spans between the main walls or between the side walls and the main wall. The reinforcing support structure can be made of angle steel, channel steel or lightweight alloy material, and is fixed to the wall by welding or bolting.

[0014] The reinforcing support structure in the above technical solution is provided with through holes corresponding to the wall connection holes.

[0015] In the above technical solution, the edges of the reserved holes for electromechanical pipelines and the reserved holes for equipment pipelines are both provided with smooth chamfers or protective sleeves.

[0016] The main wall, side walls and cover panels described in the above technical solution are all designed as modular structures and can be split into multiple smaller-sized components according to actual needs.

[0017] The beneficial effects of the present invention are as follows: through prefabricated standard wall modules, rapid on-site installation is achieved, which significantly improves construction efficiency and reduces construction costs; at the same time, the wall structure adopts a multi-layer design, which effectively improves the thermal insulation and sound insulation performance and enhances the overall comfort of the building; the reserved electromechanical pipeline channels and assembly connectors facilitate the flexible arrangement and installation of electromechanical pipelines, improve space utilization, and reduce the need for on-site opening and modification; the wall system has good scalability and adaptability, can meet the functional and aesthetic requirements of different medical buildings, and promote the modernization and standardization of medical facility construction. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 This is an overall structural diagram of a pre-assembled splicing wall for electromechanical pipelines provided by an embodiment of the present utility model;

[0019] Figure 2 A schematic diagram of a main wall panel provided in an embodiment of the present utility model;

[0020] Figure 3 A schematic diagram of a side wall panel provided in an embodiment of the present utility model;

[0021] Figure 4 A schematic diagram of a sealing plate provided in an embodiment of the present utility model;

[0022] Figure 5 This is an exploded structural diagram of a pre-assembled splicing wall for electromechanical pipelines provided in an embodiment of the present invention. DETAILED DESCRIPTION

[0023] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0024] The following will clearly and completely describe the concept, specific structure and technical effects of the present invention in combination with the embodiments and drawings, so as to fully understand the purpose, characteristics and effects of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of them. Based on the embodiments of the present invention, other embodiments obtained by technical personnel in this field without creative work are within the scope of protection of the present invention. In addition, all the connection / connection relationships involved in the patent do not refer to the direct connection of components, but refer to the fact that a better connection structure can be formed by adding or reducing connection accessories according to the specific implementation situation. The various technical features in the creation of the present invention can be combined interactively without conflicting with each other.

[0025] In view of the above background, the present invention aims to provide an innovative pre-assembled spliced ​​wall for electromechanical pipelines in medical buildings to overcome the shortcomings of traditional medical building wall structures and electromechanical pipeline installation methods, and meet the urgent needs of modern medical buildings for efficiency, safety and environmental protection.

[0026] like Figure 1-2 As shown, the present application provides a pre-assembled splicing wall for electromechanical pipelines, comprising a pair of main walls 10 vertically spaced apart and side walls 20 disposed between the main walls 10, the side walls 20 being relatively sandwiched between the main walls 10, the surfaces of the main walls 10 and the tops of the side walls 20 being provided with sealing plates 30, the main walls 10 and the side walls 20 being provided with connection holes for connecting fasteners 40 to pass through, the main walls 10 and the side walls 20 being connected to the sealing plates 30 by the connecting fasteners 40;

[0027] The main wall 10 is provided with a reserved hole 50 for equipment pipelines outside the wall to pass through;

[0028] A reserved channel 60 for electromechanical pipelines is provided in the main wall 10 , and a reserved hole for electromechanical pipelines is provided on the side wall 20 for the electromechanical pipelines to pass through.

[0029] When installing the wall, first install the main wall 10, then fix the reserved holes 60 for electromechanical pipelines in the reserved holes for electromechanical pipelines on the main wall 10 through electromechanical pipeline assembly connectors. Then, sandwich the side walls 20 and the cover plate 30 between the main walls 10. After aligning the front and rear main walls 10, they are connected using the connecting fasteners 40 to form a complete wall. After the wall installation is completed, the decorative panels are attached and the corresponding medical electromechanical equipment is installed to realize the pre-assembled spliced ​​wall for electromechanical pipelines in medical buildings with the intended functions.

[0030] In a possible implementation, the main wall panel 10 and the side wall panel 20 are both three-layer structures, which are, from the outside to the inside, a glass magnesium board 11, a sealing layer 12, and a light steel keel thermal insulation and sound insulation layer 13. The glass magnesium board 11 and the sealing layer 12 and the light steel keel thermal insulation and sound insulation layer 13 are staggeredly connected, and connection holes for the connecting fasteners 60 to pass through are reserved on the protruding glass magnesium board 11 and the protruding sealing layer 11 and the light steel keel thermal insulation and sound insulation layer 13 respectively; the staggered connection protruding positions of the glass magnesium board 11 and the sealing layer 12 and the light steel keel thermal insulation and sound insulation layer 13 on the side wall panel 20 are arranged in a mirror-symmetrical manner with the corresponding positions of the main wall panel 10.

[0031] The above structural components effectively improve the thermal insulation, sound insulation and fire resistance of the wall, while enhancing the overall strength and durability of the wall. Through the staggered connection design of the glass magnesium board, sealing layer and light steel keel insulation and sound insulation layer, and the reservation of fastener connection holes in the protruding parts, precise docking and stable connection between modules are achieved, thereby improving the overall stability of the wall and construction efficiency.

[0032] In one possible implementation, the sealing plate 30 is made of glass magnesium strips 31, on which fastener connection holes 32 are provided, which are respectively used to seal the light steel keel thermal insulation and sound insulation layer 13 and the protruding edges of the glass magnesium board 11. The sealing plate 30 is connected to the main wall panel 10 through the reserved fastener connection holes, thereby ensuring the integrity and aesthetics of the wall; at the same time, the sealing and waterproof performance between the protruding edges of the light steel keel thermal insulation and sound insulation layer 13 and the sealing layer 12 and the main wall panel 10 and the side wall panel 20 are enhanced.

[0033] In one possible implementation, the connecting fastener 40 is a bolt assembly with adjustable length, including a bolt rod, a fastening nut and a fixing head located at both ends of the bolt rod, wherein the fixing head is designed as a flange matching the shape of the connecting hole so as to fit tightly with the connecting hole during tightening, thereby enhancing the stability of the wall structure.

[0034] In one possible implementation, the shapes of the equipment pipeline reserved holes 50 and the electromechanical pipeline reserved channels 60 include but are not limited to horizontal straight channels, vertical straight channels, cross-shaped channels, horizontal one-to-two (or more) channels, horizontal two (or more)-to-one channels, vertical one-to-two (or more) channels, vertical two (or more)-to-one channels, left-upper corner channels, left-lower corner channels, right-upper corner channels, and right-lower corner channels. The main wall panels 10 and side wall panels 20 with channels of different shapes are all standard wall modules prefabricated in the factory, which facilitates the rapid installation of electromechanical pipelines on site, reduces the workload of on-site drilling and modification, and improves construction efficiency and flexibility.

[0035] In one possible implementation, an electromechanical pipeline assembly connector 14 is provided on the inner wall of the electromechanical pipeline reserved channel 60. The electromechanical pipeline assembly connector 14 is in a "Y" shape. One end of the electromechanical pipeline assembly connector 14 is threadedly connected to the electromechanical pipeline reserved channel 50, and the other end is used to fix the electromechanical pipeline.

[0036] In one possible implementation, the wall provided in the present application also includes at least one reinforcing support structure, which spans between the main wall panels 10 or between the side wall panels 20 and the main wall panels 10. The reinforcing support structure can be made of angle steel, channel steel or lightweight alloy material, and is fixed to the wall by welding or bolting to enhance the overall stiffness and stability of the wall and prevent wall deformation caused by the weight of electromechanical pipelines or external pressure.

[0037] In a possible implementation, the reinforcing support structure is provided with through holes corresponding to the wall connection holes.

[0038] In one possible implementation, the edges of the reserved holes for electromechanical pipelines and the reserved holes for equipment pipelines are provided with smooth chamfers or protective sleeves to reduce wear on the pipelines during installation and facilitate subsequent maintenance and overhaul work.

[0039] In one possible implementation, the main wall panels, side wall panels and cover panels are all designed as modular structures and can be split into multiple smaller-sized components according to actual needs to reduce transportation costs and installation difficulty.

[0040] The present application provides a pre-assembled spliced ​​wall for electromechanical pipelines, which realizes rapid on-site installation through factory-prefabricated standard wall modules, significantly improves construction efficiency and reduces construction costs; secondly, the wall structure adopts a multi-layer design, which effectively improves the thermal insulation and sound insulation performance, and enhances the overall comfort of the building; thirdly, the reserved electromechanical pipeline channels and assembly connectors facilitate the flexible layout and installation of electromechanical pipelines, improve space utilization, and reduce the need for on-site drilling and modification; finally, the wall system has good scalability and adaptability, can meet the functional and aesthetic requirements of different medical buildings, and promote the modernization and standardization of medical facility construction.

[0041] The above is a specific description of the preferred implementation of the present invention, but the invention of the present invention is not limited to the embodiments. Those skilled in the art can make various equivalent modifications or substitutions without violating the spirit of the present invention. These equivalent modifications or substitutions are all included in the scope defined by the claims of this application.

Claims

1. A pre-assembled splicing wall for electromechanical pipelines, characterized in that: The structure comprises a pair of main walls arranged vertically at intervals and side walls arranged between the main walls, the side walls being relatively sandwiched between the main walls, the surfaces of the main walls and the tops of the side walls being provided with sealing plates, the main walls and the side walls being provided with connection holes for connecting fasteners to pass through, and the main walls, the side walls and the sealing plates being connected by the connecting fasteners; The main wall is provided with reserved holes for equipment pipelines, which are used for passing equipment pipelines outside the wall; A reserved channel for electromechanical pipelines is provided in the main wall, and a reserved hole for electromechanical pipelines is provided on the side wall for the electromechanical pipelines to pass through.

2. The pre-assembled splicing wall for electromechanical pipelines according to claim 1 is characterized in that: The main wall and side wall are both three-layer structures, which are glass magnesium board, sealing layer and light steel keel insulation and sound insulation layer from outside to inside. The glass magnesium board is staggeredly connected to the sealing layer and the light steel keel thermal insulation and sound insulation layer, and connection holes for the connection fasteners to pass through are reserved on the protruding glass magnesium board and the protruding sealing layer and the light steel keel thermal insulation and sound insulation layer respectively; the staggered connection protruding positions of the glass magnesium board and the sealing layer and the light steel keel thermal insulation and sound insulation layer on the side wall are arranged in a mirror-symmetrical manner with the corresponding positions of the main wall.

3. The pre-assembled splicing wall for electromechanical pipelines according to claim 2 is characterized in that: The sealing plate is made of glass magnesium strips to enhance the sealing and waterproof performance between the light steel keel thermal insulation layer, the sealing layer, the protruding edge position and the main wall and the side wall.

4. The pre-assembled splicing wall for electromechanical pipelines according to claim 1, characterized in that: The shapes of the equipment pipeline reserved holes and the electromechanical pipeline reserved channels include horizontal straight channels, vertical straight channels, cross-shaped channels, horizontal one-to-multiple channels, horizontal multiple-to-one channels, vertical one-to-multiple channels, vertical multiple-to-one channels, left-upper corner channels, left-lower corner channels, right-upper corner channels, and right-lower corner channels.

5. The pre-assembled splicing wall for electromechanical pipelines according to claim 1 is characterized in that: An electromechanical pipeline assembly connector is provided on the inner wall of the reserved hole for electromechanical pipelines. The electromechanical pipeline assembly connector is in a "Y" shape. One end of the electromechanical pipeline assembly connector is threadedly connected to the reserved hole for electromechanical pipelines, and the other end is used to fix the electromechanical pipeline.

6. The pre-assembled splicing wall for electromechanical pipelines according to claim 1, characterized in that: The connecting fastener is a bolt assembly with adjustable length, including a bolt rod, a fastening nut and a fixing head located at both ends of the bolt rod, wherein the fixing head is designed as a flange matching the shape of the connecting hole so that it fits tightly with the connecting hole during tightening, thereby enhancing the stability of the wall structure.

7. The pre-assembled splicing wall for electromechanical pipelines according to claim 1, characterized in that: It also includes at least one reinforcing support structure, which spans between the main walls or between the side walls and the main wall. The reinforcing support structure can be made of angle steel, channel steel or light alloy material, and is fixed to the wall by welding or bolting.

8. The pre-assembled splicing wall for electromechanical pipelines according to claim 7, characterized in that: The reinforcing support structure is provided with through holes corresponding to the wall connection holes.

9. The pre-assembled splicing wall for electromechanical pipelines according to claim 1, characterized in that: The edges of the reserved holes for electromechanical pipelines and the reserved holes for equipment pipelines are both provided with smooth chamfers or protective sleeves.

10. The pre-assembled splicing wall for electromechanical pipelines according to claim 1, characterized in that: The main wall, side walls and cover panels are all designed as modular structures.

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