Fabricated composite enclosure wall for industrial factory building

Abstract

The invention relates to the technical field of enclosure walls, and discloses an assembly type composite enclosure wall for an industrial factory building, which comprises a side enclosure mechanism positioned on a limiting arc plate and matched with a side frame to form two side enclosure structures; the built-in stabilizing mechanism is positioned on the side enclosure mechanism, and is matched with the side protection frame to reinforce the enclosure structure and perform flame-retardant spray irrigation; the fine adjustment locking mechanism is located on the positioning cylinder and matched with the small arc flitch plate to be used for locking the side enclosure structure with the adjusted angle and can be in longitudinal butt joint with the side enclosure structure. A positioning cylinder is adopted as a central base point of a single enclosure wall unit, and a modular enclosure wall structure with an adjustable angle is formed by splicing a plurality of devices. Each enclosure wall unit is provided with a side butt joint mechanism and a limiting arc plate structure, and it is ensured that the enclosure wall can be subjected to limited rotation adjustment during splicing. And the angle of the enclosure wall can be adjusted according to requirements during installation by utilizing the rotary motion of the side butt joint mechanism, so that the requirements of different spaces and functions of a plant are met.

Description

Technical Field

[0001] The present invention relates to the technical field of enclosure walls, in particular to an assembled composite enclosure wall for industrial plants. Background Art

[0002] Prefabricated buildings are a new type of building that combines new prefabricated construction techniques with sustainable technologies. Prefabricated buildings are industrialized buildings that utilize systematic design, modular disassembly, factory manufacturing, and on-site assembly. They are designed to be manufactured in factories and assembled on-site whenever possible.

[0003] Traditional enclosure wall installation typically relies on standardized wall structures, resulting in a fixed and non-adjustable installation process, making it difficult to adapt to the needs of different factory buildings. Many traditional enclosure wall structures are prone to deformation, tilting, or damage in the face of extreme weather, earthquakes, or other external forces. This is particularly true when the walls are tall, where stability is particularly limited. Traditional enclosure walls often have poor fire protection, thermal insulation, and heat preservation performance, making them vulnerable to fire and high temperatures, posing safety threats to equipment and personnel within the factory building. The installation of traditional enclosure walls often requires extensive labor and tedious procedures, and the accuracy of angle adjustment and jointing is poor, leading to uneven installation and loose joints. This results in low installation efficiency and poor precision. Traditional enclosure walls often lack effective emergency response mechanisms. When a fire or high temperature occurs within the factory building, the enclosure wall cannot respond promptly, potentially exacerbating the spread of the fire. Enclosure walls often cannot perfectly adapt to different floor surfaces or installation environments, especially on uneven surfaces or complex spaces, resulting in poor installation results and insufficient wall stability. Summary of the Invention

[0004] In response to the shortcomings of the existing technology, the present invention provides an assembled composite enclosure wall for industrial plants, which solves the many shortcomings of traditional enclosure walls in adaptability, stability, fire protection and insulation, installation efficiency and emergency response, and the problem that they are difficult to cope with complex environments and extreme conditions.

[0005] To achieve the above objectives, the present invention is implemented through the following technical solutions: An assembled composite enclosure wall for industrial plants, comprising:

[0006] Positioning cylinder, with its own limiting groove, is used to fix the assembled composite enclosure wall structure;

[0007] The limiting arc plate is located on the positioning cylinder, and the arc-shaped chamber structure formed by the positioning cylinder is used to form the angle limiting structure of the enclosure wall;

[0008] The side docking mechanism is located on the positioning cylinder and cooperates with the limiting groove of the positioning cylinder and the arc-shaped chamber structure to fix the side enclosure structure;

[0009] The side enclosure mechanism is located on the limiting arc plate and cooperates with the side frame to form the enclosure structure on both sides;

[0010] The built-in stabilizing mechanism is located on the side enclosure structure and is used in conjunction with the side protection frame to reinforce the enclosure structure and perform flame retardant sprinkler irrigation;

[0011] The fine-tuning locking mechanism is located on the positioning cylinder and is used with the small arc plate to lock the side enclosure structure after the angle is adjusted and to perform longitudinal docking.

[0012] The opposed stabilizing mechanism is located on the side enclosure mechanism and is used in conjunction with the internal threaded sliding cylinder, the traction rod and the multi-angle embedded groove for the stable placement and assembly of the assembled composite enclosure wall.

[0013] Preferably, the positioning cylinder is provided with limiting grooves on both sides that are opposite to each other and extend through the cylinder. The limiting arc plates are distributed and fixed on both sides of the positioning cylinder, and form an arc-shaped chamber structure between the outer wall of the positioning cylinder. The two sides of the side docking mechanism are correspondingly arranged on the positioning cylinder. The side enclosure mechanism is arranged on the side docking mechanism and distributed on both sides of the positioning cylinder. The built-in stabilization mechanism is distributed in the side enclosure mechanism. The fine-tuning locking mechanism is embedded in the positioning cylinder. The opposing stabilization mechanism is arranged at the bottom of the fine-tuning locking mechanism.

[0014] Preferably, the side docking mechanism includes a large arc plate fixedly connected to one side of the side frame, the large arc plate fits in the cavity formed between the positioning column and the limiting arc plate, and the small arc plates are distributed up and down and fixedly connected to the side wall of the large arc plate away from the side frame, and the small arc plates pass through the limiting groove of the positioning column and fit on the inner wall of the positioning column.

[0015] Preferably, the side enclosure mechanism includes a side guard frame, which is fixedly connected to the side of the side frame away from the positioning column and has a space that passes through from top to bottom. A docking frame is fixedly connected to the inner side of the top of the side guard frame, and an embedded frame is fixedly connected to the outer side of the bottom of the side guard frame. Exhaust grilles are provided on both sides of the embedded frame.

[0016] Preferably, the built-in stabilizing mechanism includes an I-frame and a synchronous flame-retardant component. The I-frame is fixedly connected to the side guard frame. The two sides of the I-frame are fixedly connected with embedded frames that are evenly distributed longitudinally. The synchronous flame-retardant component is arranged in the I-frame, and the I-frame is provided with thermal insulation cotton boards that are opposite and evenly distributed on both sides.

[0017] Preferably, the fine-tuning locking mechanism includes a built-in cylinder and an internally threaded sliding cylinder, the built-in cylinder is fixedly connected in the positioning cylinder, and its outer side wall fits into the inner arc surface of the small arc plate, the top of the built-in cylinder is rotatably connected to the top embedded tube, and a linkage screw is rotatably installed inside the built-in cylinder through the top embedded tube, the internally threaded sliding cylinder is slidably connected in the built-in cylinder, and its internal thread groove is threadedly docked with the linkage screw, and the side wall of the built-in cylinder is located at the height of the small arc plate and is provided with conical tightening blocks on both sides that are opposite and slidably connected, the inner protrusion of the conical tightening block extends into the built-in cylinder, and the side wall of the internally threaded sliding cylinder is provided with trapezoidal contact blocks on both sides that are opposite, and the bottom end of the linkage screw is fixedly connected to a traction rod.

[0018] Preferably, the opposed stabilizing mechanism includes a fixed plate, which is clamped and rotatably connected to the bottom end of the internally threaded sliding cylinder, a traction sleeve is fixedly connected to the top of the fixed plate, the traction rod is embedded and switched in the traction sleeve, and a circumferentially distributed rotating seat is fixedly connected to the bottom of the fixed plate, and the fixed plate is rotatably connected to a circumferentially distributed extension arm through the rotating seat, and a conical handle is fixedly connected to one end of the extension arm away from the rotating seat, and the conical handle is correspondingly arranged on the coaxial line of the single-sided angle groove structure of the polygonal embedded groove.

[0019] Preferably, the synchronous flame retardant assembly includes a liquid storage tank and a lifting rod. The liquid storage tank is distributed and fixedly connected in the I-frame. The liquid storage tank is divided into two upper and lower spaces. The upper space is smaller than the lower space. The side wall of the upper space of the liquid storage tank is provided with equidistantly distributed sprinkler end pipes. At the same time, the end portion of the sprinkler end pipe is bent downward. The lifting rod is slidably connected to the liquid storage tank, and its two ends extend to the top wall and bottom wall of the I-frame respectively. The top of the lifting rod is fixedly connected to the embedded end pipe and embedded in the I-frame. The top wall, the bottom end of the lifting rod is fixedly connected with a docking end tube and embedded in the bottom wall of the I-frame, the embedded end tube is provided with a slot for the docking end tube to be embedded, the lifting rod is fixedly connected with a clamping plate on one side close to the bottom of the I-frame, nickel-chromium strips are connected between the two sides of the clamping plate and the bottom wall of the I-frame, a reset clamp is provided between the clamping plate and the bottom wall of the I-frame, a piston ejection block is slidably connected to the inside of the liquid storage tank, a protrusion is provided on the top of the piston ejection block, and can be embedded in the upper space of the liquid storage tank.

[0020] Preferably, the polygonal embedded groove is provided on the top embedded tube and has a polygonal slot structure.

[0021] Preferably, the rotating shaft of the rotating seat and the rotating groove of the extension arm are both provided with a 45-degree fan-shaped piece structure, and the side of the extension arm close to the cone handle is provided with an arc-shaped blocking plate structure.

[0022] The present invention provides an assembled composite enclosure wall for industrial plants. It has the following beneficial effects:

[0023] 1. This invention features a modular splicing and rotational adjustment mechanism: This enclosure wall system utilizes a positioning column as the central base point for each enclosure wall unit. By splicing multiple units together, a modular enclosure wall structure with adjustable angles is formed. Each enclosure wall unit utilizes a side-mounted docking mechanism and a limited arc plate structure to ensure limited rotational adjustment during splicing. The rotational motion of the side-mounted docking mechanism allows the enclosure wall to be adjusted as needed during installation to meet the needs of different factory spaces and functions.

[0024] 2. This invention features fine-tuning locking and precise adjustment: The fine-tuning locking mechanism plays a crucial role in the modular wall assembly process. By using the fine-tuning locking mechanism within the positioning column, the side docking mechanism can be precisely locked after angle adjustment. The interlocking screw and internally threaded sliding cylinder enable precise adjustment and stability of the retaining wall. This design not only simplifies the retaining wall assembly process but also ensures the stability and safety of the retaining wall structure after installation.

[0025] 3. The present invention features an adaptive installation and support system: To accommodate the needs of different factory spaces, the design of the opposing stabilizing mechanism and the spiked handles allows the enclosure wall to automatically adapt to different installation areas. The spiked handles and extension arms allow the enclosure wall to be stably supported on a fixed surface, and the expanded spiked handles form a multi-point support structure, ensuring the stability of the wall during assembly. In addition, the expansion function of the extension arms allows the enclosure wall to be stably supported on a fixed surface.

[0026] 4. This invention boasts rapid response and automatic adjustment capabilities: Once the enclosure wall is assembled and encounters an emergency situation such as high temperature or fire, the system automatically activates the reset ring and jacking rod system without external power through the melting reaction of the nickel-chromium strip. This system operates by causing the nickel-chromium strip to melt due to high temperatures, thereby releasing the compression plate and initiating the spraying of flame retardant liquid, achieving rapid cooling and flame retardancy. This adaptive emergency mechanism ensures that the wall automatically responds in the event of a fire, protecting personnel and equipment within.

[0027] 5. This invention offers multi-point synchronous fixation and enhanced structural strength: This solution also utilizes a multi-point synchronous locking method. Through the structural design of the tapered spike handle and embedded groove, it achieves synchronous fixation and angle adjustment between the enclosure wall units. This multi-point synchronous fixation method significantly improves the structural strength of the entire enclosure wall system, ensuring that the wall will not shift or deform under external pressure. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 A three-dimensional schematic diagram of the main structure of the present invention Figure 1 ;

[0029] Figure 2 A three-dimensional schematic diagram of the main structure of the present invention Figure 2 ;

[0030] Figure 3 A three-dimensional schematic diagram of the main structure of the present invention Figure 3 ;

[0031] Figure 4 This is a schematic diagram of the installation state of the side enclosure mechanism of the present invention Figure 1 ;

[0032] Figure 5 This is a schematic diagram of the installation state of the side enclosure mechanism of the present invention Figure 2 ;

[0033] Figure 6 This is a schematic diagram of the side docking mechanism of the present invention in an installed state;

[0034] Figure 7 It is a structural schematic diagram of the side docking mechanism of the present invention;

[0035] Figure 8 This is a schematic diagram of the positioning column structure assembly of the present invention;

[0036] Figure 9 This is a schematic diagram of the structure of the built-in stabilizing mechanism of the present invention;

[0037] Figure 10 This is a schematic diagram of the internal structure of the built-in stabilizing mechanism of the present invention;

[0038] Figure 11 This is a schematic structural diagram of the fine-tuning locking mechanism of the present invention;

[0039] Figure 12 This is a schematic diagram of the installation state of the opposing stabilizing mechanism of the present invention;

[0040] Figure 13 It is a structural schematic diagram of the opposing stabilizing mechanism of the present invention.

[0041] Among them, 1. Positioning column; 2. Limiting arc plate; 3. Side docking mechanism; 4. Side enclosure mechanism; 5. Built-in stabilization mechanism; 6. Fine-tuning locking mechanism; 7. Opposite stabilization mechanism; 31. Side frame; 32. Large arc plate; 33. Small arc plate; 41. Side protection frame; 42. Docking frame; 43. Embedded frame; 44. Exhaust grille; 51. I-shaped frame; 52. Liquid storage tank; 53. Insulation cotton board; 54. Sprinkler end pipe; 55. Lifting rod; 5 6. Embedded end tube; 57. Butt-jointed end tube; 58. Clamping plate; 59. Nickel-chromium strip; 510. Reset snap ring; 511. Piston ejector block; 61. Built-in cylinder; 62. Top embedded tube; 63. Linking screw; 64. Internally threaded sliding cylinder; 65. Conical top tightening block; 66. Trapezoidal contact block; 67. Pull rod; 68. Multi-angle embedded groove; 71. Fixed plate; 72. Pull sleeve; 73. Rotating seat; 74. Extension arm; 75. Tapered handle. DETAILED DESCRIPTION

[0042] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings of the present invention. 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 creative efforts are within the scope of protection of the present invention.

[0043] Please see the attached Figure 1 -Attached Figure 3, an embodiment of the present invention provides an assembled composite enclosure wall for industrial plants, comprising: a positioning column 1, which cooperates with its own limiting groove to fix the assembled composite enclosure wall structure, a limiting arc plate 2 is located on the positioning column 1, and cooperates with the positioning column 1 to form an arc-shaped chamber structure for forming an angle limiting structure of the enclosure wall, the positioning column 1 is provided with limiting grooves on both sides that are opposite and extend through, the limiting arc plates 2 are distributed and fixed on both sides of the positioning column 1, and form an arc-shaped chamber structure with the outer wall of the positioning column 1, the side docking mechanism 3 is correspondingly arranged on both sides of the positioning column 1, and the side enclosure mechanism 4 is arranged on the side The positioning column 1 is provided with a fixed connection 3, and is distributed on both sides of the positioning column 1. The built-in stabilizing mechanism 5 is distributed in the side enclosure mechanism 4. The fine-tuning locking mechanism 6 is embedded in the positioning column 1. The opposing stabilizing mechanism 7 is arranged at the bottom of the fine-tuning locking mechanism 6. First, this set of devices is used as the main structure of the industrial plant enclosure wall. The modular enclosure wall can be assembled by splicing multiple sets of devices. The overall structure revolves around the positioning column 1 as the central base point of a single set of enclosure walls. The limiting arc plates 2 installed on both sides are used to form an arc-shaped chamber structure distributed on both sides, so that the side docking mechanisms 3 distributed on both sides of the positioning column 1 can be The arc-shaped chamber structure is used for limited rotation, and the side enclosure mechanisms 4 installed on both sides of the positioning column 1 by means of the side docking mechanism 3 also rotate synchronously, so that a certain angle can be formed between the side enclosure mechanisms 4 on both sides, and the built-in stabilizing mechanisms 5 installed inside the side enclosure mechanisms 4 can also increase the instantaneous flame retardant and cooling effect while reinforcing the structure of the side enclosure mechanisms 4, and multiple groups of enclosure walls assembled up and down can also perform flame retardant and cooling synchronously, and at the same time, the fine-tuning locking mechanism 6 installed inside the positioning column 1 can adjust the side docking mechanisms 3 on both sides and the built-in stabilizing mechanism 5. While the angle is adjusted and locked, it can also be assembled up and down in conjunction with the opposing stabilizing mechanism 7, and the assembled multiple sets of retaining walls can be synchronously locked at an angle. The opposing stabilizing mechanism 7 installed in the positioning column 1, in conjunction with the fine-tuning locking mechanism 6, can process the placement stability of the retaining wall and realize the ability to splice and assemble the upper and lower retaining walls. The positioning column 1 is a cylindrical structure with relative limiting grooves on both sides, and the two sides of the adjacent limiting grooves of the positioning column 1 are installed with spaced limiting arc plates 2, and the arc structure of the limiting arc plate 2 forms an arc-shaped chamber knot with the outer surface of the positioning column 1.

[0044] Please see the attached Figure 1 -Attached Figure 7The side docking mechanism 3 is located on the positioning cylinder 1, and cooperates with the limiting groove of the positioning cylinder 1 and the arc-shaped chamber structure to fix the side enclosure structure. The side docking mechanism 3 includes a side frame 31 with a large arc plate 32 fixedly connected to one side. The large arc plate 32 fits in the chamber formed between the positioning cylinder 1 and the limiting arc plate 2. The small arc plates 33 are fixedly connected to the side wall of the large arc plate 32 away from the side frame 31. The small arc plate 33 passes through the limiting groove of the positioning cylinder 1 and fits on the inner wall of the positioning cylinder 1. The side docking mechanism 3 includes a side frame 31, a large arc plate 32 As well as the small arc plate 33 structure, the large arc plate 32 is installed on the side frame 31, and at the same time is embedded in the arc chamber structure formed between the limiting arc plate 2 and the positioning column 1, so that the large arc plate 32 can pull the side frame 31 along the chamber structure to rotate on both sides of the positioning column 1, and the installation positions of the large arc plates 32 on both sides serve as the rotation limit points of the large arc plates 32, and the small arc plate 33 is installed on the large arc plate 32 and passes through the limiting grooves on both sides of the positioning column 1, and finally fits on the inner wall of the positioning column 1, and follows the large arc plate 32 to rotate along the inner wall of the positioning column 1 at the same time.

[0045] Please see the attached Figure 1 -Attached Figure 5 The side enclosure mechanism 4 is located on the limiting arc plate 2 and cooperates with the side frame 31 to form the enclosure structure on both sides. The side enclosure mechanism 4 includes a side guard frame 41, which is fixedly connected to the side frame 31 away from the positioning column 1 and has a space that passes through from top to bottom. The top inner side of the side guard frame 41 is fixedly connected to a docking frame 42, and the bottom outer side of the side guard frame 41 is fixedly connected to an embedded frame 43. Exhaust grilles 44 are provided on both sides of the embedded frame 43. The side enclosure mechanism 4 is installed on both sides of the positioning column 1 through the side docking mechanism 3 as the approximate wall structure of the enclosure wall. The included side guard frame 41 is installed on the side frame 31 as an external wall structure. The docking frame 42 installed on the top of the side guard frame 41 corresponds to the embedded frame 43 installed on the bottom. When two groups of this type of enclosing walls are docked and assembled in a stacked manner, the top docking frame 42 corresponding to the lower side guard frame 41 can be embedded and fit into the bottom embedded frame 43 corresponding to the upper side guard frame 41, so that the side guard frame 41 itself can perform multiple groups of longitudinal assembly operations to meet the required enclosing wall height, and exhaust grilles 44 are installed on the walls on both sides of the side guard frame 41 to facilitate air circulation in the factory.

[0046] Please see the attached Figure 1 -Attached Figure 10, the built-in stabilizing mechanism 5 is located on the side enclosure mechanism 4, and cooperates with the side protection frame 41 to reinforce the enclosure structure and perform flame retardant sprinkler irrigation. The built-in stabilizing mechanism 5 includes an I-frame 51 and a synchronous flame retardant component. The I-frame 51 is fixedly connected to the side protection frame 41. The two sides of the I-frame 51 are fixedly connected with the longitudinally equidistantly distributed embedded frames 43. The synchronous flame retardant component is arranged in the I-frame 51. The I-frame 51 is provided with insulation cotton boards 53 that are opposite and equidistantly distributed on both sides. The synchronous flame retardant component includes a liquid storage tank 52 and a lifting rod 55. The liquid storage tank 52 is distributed and fixedly connected in the I-frame 51. The liquid storage tank 52 is divided into two upper and lower spaces. The upper space is smaller than the lower space. The side wall of the upper space of the liquid storage tank 52 is provided with equidistantly distributed sprinkler end pipes 54. At the same time, the sprinkler end pipe 5 The end portion of 4 is bent downward, and the lifting rod 55 is slidably connected to the liquid storage tank 52, and its two ends extend to the top wall and bottom wall of the I-frame 51 respectively. The top of the lifting rod 55 is fixedly connected to an embedded end tube 56 and embedded in the top wall of the I-frame 51, and the bottom end of the lifting rod 55 is fixedly connected to a docking end tube 57 and embedded in the bottom wall of the I-frame 51. The embedded end tube 56 is provided with a slot for the docking end tube 57 to be embedded. A pressure plate 58 is fixedly connected to the side of the lifting rod 55 near the bottom of the I-frame 51. Nickel-chromium strips 59 are connected between the two sides of the pressure plate 58 and the bottom wall of the I-frame 51. A reset clamp 510 is provided between the pressure plate 58 and the bottom wall of the I-frame 51. A piston push-out block 511 is slidably connected to the inside of the liquid storage tank 52, and a protruding piston push-out block 511 is provided on the top. The output part can be embedded in the upper space of the liquid storage tank 52. The I-frame 51 included in the built-in stabilizing mechanism 5 is an I-shaped frame structure and is fixed in the side guard frame 41 to improve the structural strength of the side guard frame 41. The I-frame 51 is equipped with equidistantly arranged insulation cotton boards 53 in the form of distribution on both sides and embedded in the side guard frame 41. The characteristics of multiple sets of wall insulation cotton boards 53 are used to improve the thermal insulation of the factory building after enclosure. The synchronous flame retardant component included in the built-in stabilizing mechanism 5 can simultaneously perform flame retardant liquid cooling and sprinkling operations when multiple sets of walls are assembled up and down. The liquid storage tank 52 included in the synchronous flame retardant component is arranged in the center of the side guard frame 41. The space on the top is smaller than the lower space, thereby forming an output boost area, and the upper part of the liquid storage tank 52 is distributed. The sprinkler end pipe 54 guides the sprayed irrigation, and the flame retardant coolant is pre-stored in the liquid storage tank 52. The lifting rod 55 included in the synchronous flame retardant assembly passes through the liquid storage tank 52 as a whole and slides along the liquid storage tank 52. At the same time, the embedded end pipe 56 installed on the top is embedded in the top wall of the I-shaped frame 51, and the docking end pipe 57 fixed at the bottom is embedded in the bottom end of the I-shaped frame 51. The embedded end pipe 56 and the docking end pipe 57 included in the two sets of walls can be wedged with each other in the form of longitudinal docking, and a piston push-out block 511 is installed in the liquid storage tank 52 in a sliding manner and fixed on the lifting rod 55, so that the lifting rod 55 can pull the piston push-out block 511 to move upward in the liquid storage tank 52. The piston push-out block 511 is also distributed in the upper and lower parts, and the lower volume is larger than the upper volume.The lower part of the lifting rod 55 is located below the I-frame 51, and a pressure plate 58 is fixed to it. A set of reset clamps 510 in a compressed and force-storing state is set between the pressure plate 58 and the I-frame 51, and the pressure plate 58 and the bottom wall of the I-frame 51 are temporarily dragged and fixed by nickel-chromium strips 59 installed on both sides. When a fire occurs in the factory building and high temperature on one side is transmitted to the assembled enclosure wall area, the high temperature will enter multiple sets of stacked walls, and the nickel-chromium strips 59 installed in multiple sets of walls will melt synchronously when they are continuously exposed to abnormally high temperatures. As the nickel-chromium strips 59 melt, the pressure plate 58 is separated from the drag of the nickel-chromium strips 59, and the corresponding reset clamps 510 in a compressed state start to operate at the same time and push the pressure plate 58 to the top of the wall, and multiple sets of mutually assembled pressure plates 58 and fixed lifting rods 55 cooperate with the docking of two adjacent sets of walls. The end tubes 57 and the embedded end tubes 56 drive the jacking rods 55 included in the multiple sets of wall bodies to rise simultaneously under the rebound effect of the multiple sets of reset clamps 510, so that the jacking rods 55 included in the multiple sets of wall bodies respectively pull the piston push-out blocks 511 fixed to themselves to rise rapidly in the corresponding liquid storage tanks 52. The rapid rise of the piston push-out blocks 511 pushes the flame retardant liquid temporarily stored in the liquid storage tank 52 from the lower space of the liquid storage tank 52 to the upper space of the liquid storage tank 52 until the upper part of the piston push-out block 511 enters the upper space of the liquid storage tank 52. As a result, the delivery space of the flame retardant liquid gradually decreases, and the delivery pressure of the flame retardant liquid begins to gradually increase until the flame retardant liquid is evenly sprayed out along the sprinkler end tubes 54 installed on the liquid storage tank 52, and at the same time, it is evenly sprayed to the outside along the exhaust grille 44 installed on the side guard frame 41, thereby timely performing a cooling and flame retardant operation on the high temperature external environment in an unpowered state.

[0047] Please see the attached Figure 1 -Attached Figure 12The fine-tuning locking mechanism 6 is located on the positioning column 1, and cooperates with the small arc plate 33 to lock the side enclosure structure after the angle is adjusted and can be longitudinally docked. The fine-tuning locking mechanism 6 includes a built-in column 61 and an internal threaded sliding cylinder 64. The built-in column 61 is fixedly connected to the positioning column 1, and its outer side wall is attached to the inner arc surface of the small arc plate 33. The top of the built-in column 61 is rotatably connected to the top embedded tube 62. The inside of the built-in column 61 is rotatably installed with a linkage screw 63 through the top embedded tube 62. The internal threaded sliding cylinder 64 is slidably connected to the built-in column 61, and its internal thread groove is threadedly docked with the linkage screw 63. The side wall of the built-in column 61 is located on the small arc plate 3 3 is provided with conical top tightening blocks 65 on both sides that are opposite and slidably connected. The inner protrusion of the conical top tightening block 65 extends into the built-in cylinder 61. The side wall of the internal thread sliding cylinder 64 is provided with trapezoidal contact blocks 66 on both sides. The bottom end of the linkage screw 63 is fixedly connected to the traction rod 67. The polygonal embedded groove 68 is provided on the top embedded tube 62 and is a polygonal slot structure. While the side docking mechanisms 3 on both sides of the positioning cylinder 1 are adjusted according to the installation area, the side docking mechanisms 3 after the angle change can be pressed and locked by adjusting the fine-tuning locking mechanism 6 installed inside the positioning cylinder 1. The built-in cylinder 61 included in the fine-tuning locking mechanism 6 is also a cylinder shaped structure, and is fixed in the positioning cylinder 1, and the interior of the built-in cylinder 61 limits the rotation of the linkage screw 63 in the built-in cylinder 61 through the top embedded tube 62 installed at the top, and the internal thread sliding cylinder 64 included in the fine-tuning locking mechanism 6 is installed in the built-in cylinder 61 in the form of sliding, and at the same time, the linkage screw 63 is embedded and threaded into the internal thread sliding cylinder 64, and the side wall of the built-in cylinder 61 and at the height of the small arc plate 33 are embedded with a conical top tightening block 65 that can slide laterally. When the side docking mechanism 3 completes the angle adjustment, by rotating the top embedded tube 62, the linkage screw 63 rotates inside the built-in cylinder 61, and the internal thread sliding cylinder 64 is screwed into the internal thread sliding cylinder 64. When the linkage screw 63 rotates, the cylinder 64 begins to move longitudinally along the inside of the built-in cylinder 61, and the trapezoidal contact block 66 extending inward is installed on the outside of the internal threaded sliding cylinder 64 and also moves and contacts and pushes the conical tightening block 65 to move outward, and touches the inner arc surface of the small arc plates 33 on both sides, so that the small arc plates 33 on both sides are temporarily locked, and the wall after adjusting the angle is also locked at the same time, and the corresponding multi-angle embedded groove 68 installed on the top embedded tube 62 is also docked with the opposing stabilizing mechanism 7 of another set of wall. At the same time, as the internal threaded sliding cylinder 64 moves, the opposing stabilizing mechanism 7 installed at the bottom end of the internal threaded sliding cylinder 64 is also pushed out of the positioning cylinder 1.

[0048] Please see the attached Figure 1 -Attached Figure 13The opposed stabilizing mechanism 7 is located on the side enclosure mechanism 4, and cooperates with the internal thread sliding cylinder 64, the traction rod 67 and the polygonal embedded groove 68 for the stable placement and assembly of the assembled composite enclosure wall. The opposed stabilizing mechanism 7 includes a fixed plate 71, which is engaged and rotatably connected to the bottom end of the internal thread sliding cylinder 64. The top of the fixed plate 71 is fixedly connected with a traction sleeve 72, and the traction rod 67 is embedded and switched in the traction sleeve 72. The bottom of the fixed plate 71 is fixedly connected with a circumferentially distributed rotating seat 73. The fixed plate 71 is rotatably connected with a circumferentially distributed extension arm 74 through the rotating seat 73, and the extension arm 74 is away from the rotating seat. One end of the movable seat 73 is fixedly connected to a tapered thorn handle 75, which is correspondingly arranged on the coaxial line of the single-sided angle groove structure of the polygonal embedded groove 68. The rotating axis of the rotating seat 73 and the rotating groove of the extension arm 74 are both provided with a 45-degree fan-shaped piece structure, and the extension arm 74 is provided with an arc-shaped blocking plate structure on the side close to the tapered thorn handle 75. The fixed disk 71 included in the opposing stabilizing mechanism 7 is rotated on the internally threaded sliding cylinder 64 and can rise and fall with the internally threaded sliding cylinder 64, and the fixed disk 71 is equipped with multiple groups of rotatable extension arms 74 through multiple groups of rotating seats 73 distributed circumferentially, and the rotating seat 7 The fan-shaped structure added to the rotating shaft and the rotating groove of the extension arm 74 drives the extension arm 74 to rotate only ninety degrees along the rotating seat 73. The end of the extension arm 74 is also equipped with a cone handle 75. The cone handle 75 distributed in a circular manner forms a pointed cone structure before it is unfolded along the extension arm 74, which can be directly inserted into the ground of the installation area. At the same time, the arc-shaped blocking plate structure added to the end of the extension arm 74 also plays an insertion blocking role when the cone handle 75 is inserted into the installation area. When the area cannot be inserted and installed, the cone handle 75 can be unfolded ninety degrees to form a multi-angle support. The structure stably places the bottom set of walls in a safe area, and the opposing stabilizing mechanism 7 includes circumferentially distributed tapered thorn handles 75, and forms a special-shaped cone structure corresponding to the polygonal embedded groove 68, and corresponds to the polygonal embedded groove 68 provided on the top embedded tube 62, so that the tapered thorn handle 75 of one set of walls can be embedded and engaged in the polygonal embedded groove 68 of another set of walls. At this time, the top embedded tube 62 corresponding to the topmost assembled set of walls can be driven to rotate, and all the assembled walls in the column can be driven to be locked at the same time, and the structural strength of the assembled factory wall can be reinforced by using a multi-point synchronous and simultaneous fixing method.

[0049] Working principle: First, this set of devices serves as the main structure of the enclosure wall of an industrial plant. It can be assembled into modular enclosure walls by splicing multiple sets of devices. The overall structure revolves around the positioning column 1 as the central base point of a single set of enclosure walls. The limiting arc plates 2 installed on both sides are used to form arc-shaped chamber structures distributed on both sides, so that the side docking mechanisms 3 distributed on both sides of the positioning column 1 can be limited and rotated through the arc-shaped chamber structure, and the side enclosure mechanisms 4 installed on both sides of the positioning column 1 by means of the side docking mechanisms 3 also rotate synchronously, so that a certain angle can be formed between the side enclosure mechanisms 4 on both sides, and the built-in stabilizing mechanisms 5 installed in each side enclosure mechanism 4 can also reinforce the structure of the side enclosure mechanism 4 at the same time. When the locating column 1 is installed, the instantaneous flame retardant cooling effect is increased, and multiple groups of upper and lower assembled enclosure walls can also be flame retardant and cooled synchronously. At the same time, the fine-tuning locking mechanism 6 installed inside the positioning column 1 can adjust and lock the angles of the side docking mechanisms 3 and the built-in stabilizing mechanism 5 on both sides, and can also be assembled up and down in conjunction with the opposing stabilizing mechanism 7. After assembly, multiple groups of enclosure walls can be locked at an angle synchronously, and the opposing stabilizing mechanism 7 installed in the positioning column 1, after cooperating with the fine-tuning locking mechanism 6, can process the placement of the enclosure wall and realize the splicing and assembly capability between the upper and lower enclosure walls. First, the positioning column 1 is a cylindrical structure with relative limiting grooves on both sides, and limiting arc plates arranged at intervals are installed on both sides of the adjacent limiting grooves of the positioning column 1. 2, and an arc-shaped chamber structure is formed between the arc structure of the limiting arc plate 2 and the outer surface of the positioning cylinder 1, and the side docking mechanism 3 includes a side frame 31, a large arc plate 32 and a small arc plate 33 structure. The large arc plate 32 is installed on the side frame 31 and embedded in the arc chamber structure formed between the limiting arc plate 2 and the positioning cylinder 1, so that the large arc plate 32 can pull the side frame 31 to rotate along the chamber structure on both sides of the positioning cylinder 1, and the installation positions of the large arc plates 32 on both sides serve as the rotation limit points of the large arc plates 32, and the small arc plates 33 are installed on the large arc plates 32 and pass through the limiting grooves on both sides of the positioning cylinder 1, and finally fit on the inner wall of the positioning cylinder 1, and follow the large arc plates 32 to rotate along the inner wall of the positioning cylinder 1 at the same time. The side enclosure mechanism 4 is installed on both sides of the positioning column 1 through the side docking mechanism 3 as the rough wall structure of the enclosure wall. The side guard frames 41 included in the side enclosure mechanism 4 are installed on the side frame 31 as the external wall structure. The docking frame 42 installed on the top of the side guard frame 41 corresponds to the embedded frame 43 installed on the bottom. When two groups of enclosure walls of this type are docked and assembled in a stacked manner, the top docking frame 42 corresponding to the lower side guard frame 41 can be embedded and fitted into the bottom embedded frame 43 corresponding to the upper side guard frame 41, so that the side guard frame 41 itself can be assembled in multiple groups longitudinally to meet the required enclosure wall height. Exhaust grilles 44 are installed on the walls on both sides of the side guard frame 41 to facilitate air circulation in the factory building.At the same time, a built-in stabilizing mechanism 5 for reinforcing the wall structure is installed inside the side guard frame 41. The I-frame 51 included in the built-in stabilizing mechanism 5 is an I-shaped frame structure and is fixed in the side guard frame 41 to improve the structural strength of the side guard frame 41. The I-frame 51 is installed with equidistantly arranged insulation cotton boards 53 distributed on both sides and embedded in the side guard frame 41. The characteristics of multiple sets of wall insulation cotton boards 53 are used to improve the thermal insulation of the factory building after enclosure. The synchronous flame retardant component included in the built-in stabilizing mechanism 5 can simultaneously perform flame retardant liquid cooling and sprinkling operations when multiple sets of walls are assembled up and down. The liquid storage tank 52 included in the synchronous flame retardant component is arranged in the center of the side guard frame 41. The space on the top is smaller than the space on the bottom, thereby forming an output boost area, and the liquid storage tank The upper part of 52 is provided with a sprinkler end pipe 54 for guiding the spraying, and the flame-retardant coolant is pre-stored in the liquid storage tank 52. The lifting rod 55 included in the synchronous flame-retardant component penetrates the liquid storage tank 52 as a whole and slides along the liquid storage tank 52. At the same time, the embedded end pipe 56 installed on the top is embedded in the top wall of the I-shaped frame 51, and the docking end pipe 57 fixed at the bottom is embedded in the bottom end of the I-shaped frame 51. The embedded end pipe 56 and the docking end pipe 57 included in the two sets of walls can be wedged with each other in the form of longitudinal docking, and a piston push-out block 511 is installed in the liquid storage tank 52 in a sliding manner and fixed on the lifting rod 55, so that the lifting rod 55 can pull the piston push-out block 511 to move upward in the liquid storage tank 52. The piston push-out block 511 is also distributed in the upper and lower parts, and the lower part is larger in volume. In the upper volume, the lower part of the jacking rod 55 is located below the I-frame 51, and a corresponding clamping plate 58 is fixed, and a group of reset clamps 510 in a compressed and force-storing state are set between the clamping plate 58 and the I-frame 51, and the clamping plate 58 and the bottom wall of the I-frame 51 are temporarily dragged and fixed by nickel-chromium strips 59 installed on both sides. When a fire occurs on one side of the factory building and high temperature is transmitted to the assembled enclosure wall area, the high temperature will enter multiple groups of stacked walls, and the nickel-chromium strips 59 installed in multiple groups of walls will simultaneously fuse when continuously exposed to abnormally high temperatures. As the nickel-chromium strips 59 fuse, the clamping plate 58 is separated from the dragging of the nickel-chromium strips 59, and the corresponding reset clamps 510 in a compressed state start to operate at the same time and push the clamping plate 58 toward the wall The plurality of mutually assembled compression plates 58 and fixed jacking rods 55 cooperate with the butt-end tubes 57 and embedded end tubes 56 connected to the adjacent two sets of wall bodies to drive the jacking rods 55 contained in the plurality of wall bodies to rise at the same time under the rebound action of the plurality of reset clamps 510, so that the jacking rods 55 contained in the plurality of wall bodies respectively pull the piston pushing blocks 511 fixed to themselves to rise rapidly in the corresponding liquid storage tanks 52. The rapid rise of the piston pushing blocks 511 pushes the flame retardant liquid temporarily stored in the liquid storage tank 52 from the lower space of the liquid storage tank 52 to the upper space of the liquid storage tank 52 until the upper part of the piston pushing block 511 enters the upper space of the liquid storage tank 52. As a result, the delivery space of the flame retardant liquid gradually decreases, and the delivery pressure of the flame retardant liquid begins to gradually increase.Until the flame retardant liquid is evenly sprayed out along the sprinkler end pipe 54 installed on the liquid storage tank 52, and at the same time is evenly sprayed out to the outside along the exhaust grille 44 installed on the side guard frame 41, so as to timely perform flame retardant operation on the high temperature environment in the unpowered state, and the side docking mechanisms 3 on both sides of the positioning column 1 are adjusted in angle according to the installation area, and the side docking mechanisms 3 after the angle change can be pressed and locked by adjusting the fine-tuning locking mechanism 6 installed inside the positioning column 1. The built-in column 61 included in the fine-tuning locking mechanism 6 is also a cylindrical structure and is fixed in the positioning column 1, and the interior of the built-in column 61 limits the rotation of the linkage screw 63 in the built-in column 61 through the top embedded tube 62 installed at the top, and the fine-tuning locking mechanism 6 The included internal thread sliding cylinder 64 is installed in the built-in cylinder 61 in a sliding manner, and the linkage screw 63 is embedded and threaded into the internal thread sliding cylinder 64, and the side wall of the built-in cylinder 61 and at the height of the small arc plate 33 are embedded with a tapered top tightening block 65 that can slide laterally. When the side docking mechanism 3 completes the angle adjustment, the top embedded tube 62 is rotated to make the linkage screw 63 rotate inside the built-in cylinder 61, and the internal thread sliding cylinder 64 begins to move longitudinally along the inside of the built-in cylinder 61 when the linkage screw 63 rotates, and the outside of the internal thread sliding cylinder 64 is equipped with a trapezoidal contact block 66 extending inward, which also moves and contacts and pushes the tapered top tightening block 65 to move outward and touch the inner arc surface of the small arc plate 33 on both sides, so that The small arc plates 33 on both sides are temporarily locked, and the wall after adjusting the angle is also locked at the same time, and the corresponding multi-angle embedded groove 68 installed on the top embedded tube 62 is also docked with the opposing stabilizing mechanism 7 of another set of wall. At the same time, with the displacement of the internal thread sliding cylinder 64, the opposing stabilizing mechanism 7 installed at the bottom end of the internal thread sliding cylinder 64 is also pushed out of the positioning cylinder 1, and the fixed plate 71 included in the opposing stabilizing mechanism 7 rotates on the internal thread sliding cylinder 64 and can rise and fall with the internal thread sliding cylinder 64, and a plurality of groups of rotatable extension arms 74 are installed on the fixed plate 71 through a plurality of groups of rotating seats 73 distributed on the circumference, and the fan-shaped structure installed on the rotating axis of the rotating seat 73 and the rotating groove of the extension arm 74 drives the extension arm 74 to only move along the rotating seat 73 The extension arm 74 is rotated 90 degrees, and a conical spike handle 75 is also installed at the end of the extension arm 74. The conical spike handle 75 distributed in a circular manner forms a pointed cone structure before it is unfolded along the extension arm 74, which can be directly inserted into the ground of the installation area. At the same time, the arc-shaped blocking plate structure installed at the end of the extension arm 74 also plays the role of insertion blocking when the conical spike handle 75 is inserted into the installation area. When the area cannot be inserted and installed, the conical spike handle 75 can be unfolded 90 degrees to form a polygonal support structure, stably placing the bottom set of walls in a safe area. The opposing stabilizing mechanism 7 includes the conical spike handles 75 distributed in a circular manner, and forms a special-shaped cone structure corresponding to the polygonal embedded groove 68, and corresponds to the polygonal embedded groove 68 provided on the top embedded tube 62.The tapered spike handle 75 of one wall can be inserted and engaged into the multi-angle embedded groove 68 of another wall. At this time, the top embedded tube 62 corresponding to the topmost wall can be driven to rotate, and all the assembled walls in the row can be locked at the same time. The multi-point synchronous and simultaneous fixing method is used to strengthen the structural strength of the assembled factory wall.

[0050] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. An assembled composite enclosure wall for industrial plants, characterized in that: include: The positioning column (1) cooperates with its own limiting groove to fix the assembled composite enclosure wall structure; The limiting arc plate (2) is located on the positioning cylinder (1), and cooperates with the positioning cylinder (1) to form an arc-shaped chamber structure for forming an angle limiting structure of the enclosure wall; The side docking mechanism (3) is located on the positioning cylinder (1) and cooperates with the limiting groove and the arc-shaped chamber structure of the positioning cylinder (1) to fix the side enclosure structure; The side enclosure mechanism (4) is located on the limiting arc plate (2) and cooperates with the side frame (31) to form a two-side enclosure structure; The built-in stabilizing mechanism (5) is located on the side enclosure mechanism (4) and cooperates with the side protection frame (41) to reinforce the enclosure structure and perform flame retardant sprinkler irrigation; The fine-tuning locking mechanism (6) is located on the positioning column (1) and is used in conjunction with the small arc plate (33) to lock the side enclosure structure after the angle is adjusted and to perform longitudinal docking of multiple sets of enclosure walls; The opposing stabilizing mechanism (7) is located on the side enclosure mechanism (4) and cooperates with the internal thread sliding cylinder (64), the traction rod (67) and the multi-angle embedded groove (68) for the stable placement and assembly of the assembled composite enclosure wall.

2. The assembled composite enclosure wall for industrial plants according to claim 1, characterized in that: The positioning cylinder (1) is provided with limiting grooves on both sides that are opposite to each other and extend through the positioning cylinder (1); the limiting arc plates (2) are distributed and fixed on both sides of the positioning cylinder (1) and form an arc-shaped chamber structure with the outer wall of the positioning cylinder (1); the two sides of the side docking mechanism (3) are correspondingly arranged on the positioning cylinder (1); the side enclosure mechanism (4) is arranged on the side docking mechanism (3) and distributed on both sides of the positioning cylinder (1); the built-in stabilizing mechanism (5) is distributed in the side enclosure mechanism (4); the fine-tuning locking mechanism (6) is embedded in the positioning cylinder (1); and the opposing stabilizing mechanism (7) is arranged at the bottom of the fine-tuning locking mechanism (6).

3. The assembled composite enclosure wall for industrial plants according to claim 1, characterized in that: The side docking mechanism (3) includes a large arc plate (32) fixedly connected to one side of the side frame (31), the large arc plate (32) is fitted in a chamber formed between the positioning cylinder (1) and the limiting arc plate (2), and the small arc plates (33) are distributed up and down and fixedly connected to the side wall of the large arc plate (32) away from the side frame (31), and the small arc plates (33) pass through the limiting groove of the positioning cylinder (1) and fit on the inner wall of the positioning cylinder (1).

4. The assembled composite enclosure wall for industrial plants according to claim 1, characterized in that: The side enclosure mechanism (4) includes a side guard frame (41), which is fixedly connected to a side of the side frame (31) away from the positioning column (1) and has a space that passes through from top to bottom. The top inner side of the side guard frame (41) is fixedly connected to a docking frame (42), and the bottom outer side of the side guard frame (41) is fixedly connected to an embedded frame (43), and exhaust grilles (44) are provided on both sides of the embedded frame (43).

5. The assembled composite enclosure wall for industrial plants according to claim 1, characterized in that: The built-in stabilizing mechanism (5) comprises an I-shaped frame (51) and a synchronous flame-retardant assembly. The I-shaped frame (51) is fixedly connected to the side protection frame (41). Both sides of the I-shaped frame (51) are fixedly connected with longitudinally equidistantly distributed embedded frames (43). The synchronous flame-retardant assembly is arranged in the I-shaped frame (51). The I-shaped frame (51) is provided with thermal insulation cotton boards (53) on both sides that are opposite and equidistantly distributed.

6. The assembled composite enclosure wall for industrial plants according to claim 1, characterized in that: The fine-tuning locking mechanism (6) includes a built-in column (61) and an internally threaded sliding cylinder (64). The built-in column (61) is fixedly connected to the positioning column (1), and its outer side wall is attached to the inner arc surface of the small arc plate (33). The top of the built-in column (61) is rotatably connected to the top embedded tube (62). The inside of the built-in column (61) is rotatably installed with a linkage screw (63) through the top embedded tube (62). The internally threaded sliding cylinder (64) is slidably connected to the built-in column. The inner thread groove of the column (61) is threadedly connected to the linkage screw (63). The side wall of the built-in column (61) is provided with conical top-tightening blocks (65) on both sides that are opposite and slidably connected at the height of the small arc plate (33). The inner protrusion of the conical top-tightening block (65) extends into the built-in column (61). The side wall of the internal thread sliding cylinder (64) is provided with trapezoidal contact blocks (66) on both sides that are opposite. The bottom end of the linkage screw (63) is fixedly connected with a traction rod (67).

7. The assembled composite enclosure wall for industrial plants according to claim 1, characterized in that: The opposed stabilizing mechanism (7) comprises a fixed disk (71), the fixed disk (71) is engaged and rotatably connected to the bottom end of the internal thread sliding cylinder (64), the top of the fixed disk (71) is fixedly connected to a traction sleeve (72), the traction rod (67) is embedded and switched in the traction sleeve (72), the bottom of the fixed disk (71) is fixedly connected to a circumferentially distributed rotating seat (73), the fixed disk (71) is rotatably connected to a circumferentially distributed extension arm (74) through the rotating seat (73), the extension arm (74) is fixedly connected to a tapered thorn handle (75) at one end away from the rotating seat (73), and the tapered thorn handle (75) is correspondingly arranged on the coaxial line of the single-side angle groove structure of the polygonal embedded groove (68).

8. The assembled composite enclosure wall for industrial plants according to claim 5, characterized in that: The synchronous flame retardant assembly includes a liquid storage tank (52) and a lifting rod (55). The liquid storage tank (52) is distributed and fixedly connected in the I-shaped frame (51). The liquid storage tank (52) is divided into two upper and lower spaces, the upper space is smaller than the lower space, and the side wall of the upper space of the liquid storage tank (52) is provided with equidistantly distributed sprinkler end pipes (54). At the same time, the end portion of the sprinkler end pipe (54) is bent downward. The lifting rod (55) is slidably connected to the liquid storage tank (52), and its two ends extend to the top wall and bottom wall of the I-shaped frame (51) respectively. The top of the lifting rod (55) is fixedly connected to the embedded end pipe (56) and embedded in the top wall of the I-shaped frame (51). The lifting rod (55) ) The bottom end is fixedly connected to a butt-end tube (57) and embedded in the bottom wall of the I-frame (51); the embedded end tube (56) is provided with a slot for the butt-end tube (57) to be embedded; the lifting rod (55) is fixedly connected to a pressure plate (58) on one side close to the bottom of the I-frame (51); nickel-chromium strips (59) are connected between the two sides of the pressure plate (58) and the bottom wall of the I-frame (51); a reset clamping ring (510) is provided between the pressure plate (58) and the bottom wall of the I-frame (51); a piston ejection block (511) is slidably connected to the inside of the liquid storage tank (52); a protrusion is provided on the top of the piston ejection block (511) and can be embedded in the upper space of the liquid storage tank (52).

9. The assembled composite enclosure wall for industrial plants according to claim 6, characterized in that: The polygonal embedded groove (68) is arranged on the top embedded tube (62) and is a polygonal slot structure.

10. The assembled composite enclosure wall for industrial plants according to claim 7, characterized in that: The rotating shaft of the rotating seat (73) and the rotating groove of the extension arm (74) are both provided with a 45-degree fan-shaped piece structure, and the side of the extension arm (74) close to the cone thorn handle (75) is provided with an arc-shaped blocking plate structure.

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