Blistered roman column structure with height adjustment

Abstract

The utility model provides a plastic uptake rome column structure with height adjustment relates to building decoration technical field, include: plastic uptake rome column structure, plastic uptake rome column structure includes base, the upper position of base installs a set of superposition casing, the upper position of superposition casing installs a top steady casing, the upper position of top steady casing installs a top seat, the periphery of base installs a set of connecting bolt, the edge position of superposition casing is installed with the locking structure of superposition distribution. Through the superposition type structure of base, superposition casing, top steady casing, the detachable connection design of collocation connecting bolt, locking structure, locking nut, can according to the decoration demand nimble increase and decrease superposition casing number, need not integral replacement rome column, can realize the adaptation of different height demand, improve the applicability in different space greatly, such as low wall decoration, high door column, solve the problem that traditional fixed height rome column needs to be customized and is difficult to adjust.

Description

Technical Field

[0001] This utility model relates to the field of architectural decoration technology, and in particular to a thermoformed Roman column structure with adjustable height. Background Technology

[0002] In the field of interior and exterior decoration, vacuum-formed Roman columns are a common architectural decorative component, widely used in interior and exterior decoration due to their classic and beautiful shapes. Vacuum-formed Roman columns come in various forms, but because traditional vacuum-formed Roman columns are usually fixed-height integral structures, they have the following drawbacks:

[0003] Firstly, traditional vacuum-formed Roman columns are mostly one-piece fixed-height structures, which need to be customized according to specific decoration dimensions during production. If the actual height at the decoration site deviates from the prefabricated height, the Roman column either needs to be cut and processed, but cutting can easily damage the surface vacuum-formed pattern and the flatness of the ends, affecting the decorative effect; or it needs to be re-customized, which is difficult to flexibly adapt to the diverse needs of different spaces.

[0004] Secondly, the monolithic tall columns are bulky, requiring a lot of space for transportation and storage, resulting in high logistics costs. They are also easily damaged during handling. The heavy monolithic columns require the cooperation of many people and the assistance of large equipment for installation. These drawbacks not only increase the construction cost of Roman columns but also extend the construction period. Utility Model Content

[0005] This utility model relates to a height-adjustable thermoformed Roman column structure. Through the coordinated cooperation of various components, the height of the thermoformed Roman column can be flexibly adjusted and stably assembled, which not only ensures the structural strength and long-term stability, but also maintains the decorative aesthetics of the Roman column through hidden connections and stepped positioning. It also features convenient assembly and maintenance, and can be widely adapted to indoor and outdoor decoration scenarios with different height requirements.

[0006] This utility model provides a height-adjustable thermoformed Roman column structure, specifically including: a thermoformed Roman column structure, the thermoformed Roman column structure including a base, a set of stacked shells installed above the base, a top stabilizing shell installed above the stacked shells, a top cap installed above the top stabilizing shell, a set of connecting bolts installed around the periphery of the base, a stacked locking structure installed at the edge of the stacked shells, a set of locking nuts installed around the periphery of the top cap, and a set of anti-loosening pins installed above the top cap;

[0007] Furthermore, a set of bolt mounting holes are provided on the periphery of the base. The bolt mounting holes have a cylindrical stepped structure. The large end of the connecting bolt is installed on the inner side of the bolt mounting hole, and the thread of the connecting bolt extends outward.

[0008] Furthermore, the locking structure includes a threaded sleeve, with a threaded rod positioned above the threaded sleeve. The threaded sleeve and threaded rod are an integral structure, and they cooperate to form the locking structure. A set of through holes are respectively opened at the periphery of the superimposed shell and the top stable shell. The through holes are cylindrical stepped structures. The threaded sleeve is installed inside the through hole, and the threaded rod passes through the interior of the through hole. The connecting bolt is threadedly connected to the bottom threaded sleeve, and the bottom threaded rod and the top threaded sleeve are sequentially threadedly connected.

[0009] Furthermore, the diameter of the threaded sleeve is larger than the diameter of the threaded rod, and a step is provided between the threaded sleeve and the threaded rod.

[0010] Furthermore, a set of bolt mounting holes are provided on the periphery of the capping seat. The bolt mounting holes are cylindrical stepped structures. The locking nut is inserted into the bolt mounting hole. A large end is provided above the locking nut. The uppermost threaded rod is connected to the inner thread of the locking nut. The connection step requires the use of a wrench to rotate the locking nut to make the bolt connection.

[0011] Furthermore, an installation groove is provided on the inner side of the base, and a reinforcing mesh is installed on the inner side of the installation groove. A reinforcing mesh is also installed on the inner side of the stacked shell, and the outer side of the reinforcing mesh contacts the inner wall of the base and the inner wall of the stacked shell, respectively.

[0012] Furthermore, a set of mounting holes corresponding to the anti-loosening pin is opened at the upper position of the capping seat. The mounting holes are connected to the bolt mounting holes of the capping seat, and the anti-loosening pin is installed inside the mounting holes.

[0013] Furthermore, a set of reinforcing rings is provided at the bottom of the superimposed shell and the top stable shell respectively. The reinforcing rings are connected to the through holes. The through holes of the superimposed shell and the top stable shell, as well as the bolt mounting holes of the base and the cap, are respectively provided with a positioning groove at the top position. The positioning groove corresponds to the reinforcing ring, and the reinforcing ring extends into the interior of the positioning groove. The base, superimposed shell, top stable shell, cap, reinforcing mesh, reinforcing ring, and positioning groove cooperate with each other to form a vacuum-formed Roman column structure.

[0014] Furthermore, a hexagonal groove is formed at the upper position of the threaded rod.

[0015] This utility model provides a height-adjustable thermoformed Roman column structure, which has the following beneficial effects:

[0016] This utility model features a stacked structure consisting of a base, a stacked shell, and a top stabilizing shell. Combined with a detachable connection design using connecting bolts, a locking structure, and locking nuts, the number of stacked shells can be flexibly increased or decreased according to decoration needs. This eliminates the need to replace the entire Roman column, allowing for adaptation to different height requirements and significantly improving applicability in various spaces, such as low wall decorations and high doorposts. It also solves the problem of traditional fixed-height Roman columns requiring customization and being difficult to adjust.

[0017] A reinforcing mesh is installed to strengthen the thermoformed Roman column structure. The reinforcing mesh enhances the deformation resistance of the base and the superimposed shell, preventing the Roman columns from denting or cracking due to external impacts or long-term use, thus extending their service life.

[0018] All components are installed using a press-fit or threaded connection, allowing for assembly without complex tools. The positioning references for each component are clear, such as the reinforcing ring and positioning groove, bolt mounting holes and connecting bolts, reducing assembly difficulty. When adjusting the height later, only the corresponding components need to be disassembled to add or remove stacked shells without damaging the overall structure, making maintenance convenient and cost-effective.

[0019] The anti-loosening pin at the top seat can be directly inserted into the thread gap between the locking nut and the threaded rod, effectively limiting the loosening of the threads caused by vibration during long-term use and ensuring connection stability; the friction between the reinforcing mesh and the inner wall of the shell, and the cooperation between the reinforcing ring and the positioning groove, can reduce component displacement and wear, while preventing dust and moisture from entering the internal structure and eroding it, thus extending the overall service life of the Roman column. Attached Figure Description

[0020] To more clearly illustrate the technical solutions of the embodiments of this utility model, the accompanying drawings of the embodiments will be briefly described below.

[0021] The accompanying drawings described below are only related to some embodiments of the present invention and are not intended to limit the scope of the present invention.

[0022] In the attached diagram:

[0023] Figure 1 This invention provides a schematic diagram of the axonal structure of the vacuum-formed Roman column after assembly.

[0024] Figure 2 This invention provides a schematic diagram of the axial structure of a disassembled thermoformed Roman column.

[0025] Figure 3 This utility model illustrates Figure 2 A schematic diagram of the axonal structure from an elevation viewpoint;

[0026] Figure 4 This invention provides a schematic diagram of the axial side structure of a vacuum-formed Roman column after sectional cutting.

[0027] Figure 5A partial axial side view of the vacuum-formed Roman column of this utility model is shown;

[0028] Figure 6 This invention provides a schematic diagram of the axonometric structure of a partially cut section of the vacuum-formed Roman column structure.

[0029] Figure 7 This utility model illustrates Figure 4 A magnified structural diagram at point A;

[0030] Figure 8 This utility model illustrates Figure 4 A magnified structural diagram at point B.

[0031] List of reference numerals

[0032] 1. Vacuum-formed Roman column structure; 101. Base; 102. Stacked shell; 103. Top stabilizing shell; 104. Top cap; 105. Reinforcing mesh; 106. Reinforcing ring; 107. Positioning groove;

[0033] 2. Locking structure; 201. Threaded sleeve; 202. Threaded rod;

[0034] 3. Lock the nut;

[0035] 4. Anti-loosening pin;

[0036] 5. Connecting bolts. Detailed Implementation

[0037] To make the objectives, technical solutions, and advantages of the embodiments of this utility model clearer, the technical solutions of the embodiments of this utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of this utility model. Based on the described embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this utility model.

[0038] Example 1: Please refer to Figures 1 to 8 :

[0039] This utility model proposes a height-adjustable thermoformed Roman column structure, comprising: a thermoformed Roman column structure 1, the thermoformed Roman column structure 1 including a base 101, a set of stacked shells 102 installed above the base 101, a top stabilizing shell 103 installed above the stacked shells 102, a capping seat 104 installed above the top stabilizing shell 103, a mounting groove provided on the inner side of the base 101, a reinforcing mesh 105 installed on the inner side of the mounting groove, and a reinforcing mesh 105 also installed on the inner side of the stacked shells 102. A reinforcing mesh 105 is installed and positioned by pressing. The outer surface of the reinforcing mesh 105 contacts the inner wall of the base 101 and the stacked shell 102. The friction of the contact surfaces is processed according to actual needs. Specifically, the mounting groove provides a precise installation position for the reinforcing mesh 105. The press-type installation requires no additional tools and is easy to operate. The contact friction between the reinforcing mesh 105 and the inner wall prevents displacement. Simultaneously, the reinforcing mesh 105 enhances the deformation resistance of the base 101 and the stacked shell 102, preventing the Roman column from being damaged by external forces. To prevent dents and cracks from impacts or prolonged use, and to extend the service life without affecting the external thermoformed decorative effect of the Roman columns, a set of reinforcing rings 106 are respectively provided at the bottom of the stacked shell 102 and the top stabilizing shell 103. The reinforcing rings 106 are connected to the through holes. The through holes of the stacked shell 102 and the top stabilizing shell 103, as well as the bolt mounting holes of the base 101 and the capping seat 104, are respectively provided with a positioning groove 107 at the top position. The positioning groove 107 corresponds to the reinforcing ring 106, and the reinforcing ring 106 extends into the positioning groove 107. Inside the 7, the base 101, the stacked shell 102, the top stabilizing shell 103, the capping seat 104, the reinforcing mesh 105, the reinforcing ring 106, and the positioning groove 107 work together to form the vacuum-formed Roman column structure 1. Specifically, the cooperation between the reinforcing ring 106 and the positioning groove 107 can reinforce the assembly position of the base 101, the stacked shell 102, and the top stabilizing shell 103, while preventing dust and moisture from entering the internal parts and corroding them. Together with the reinforcing mesh 105, it further enhances the overall stability and durability of the vacuum-formed Roman column structure 1.

[0040] In this embodiment, a set of connecting bolts 5 are installed on the periphery of the base 101, and a set of bolt mounting holes are opened on the periphery of the base 101. The bolt mounting holes have a cylindrical stepped structure, and the large end of the connecting bolt 5 is installed inside the bolt mounting hole. The thread of the connecting bolt 5 extends outward. Specifically, the cylindrical stepped bolt mounting holes can conceal the large end of the connecting bolt 5, while limiting the radial displacement of the connecting bolt 5, ensuring its coaxiality when it mates with the bottom threaded sleeve 201, improving connection stability. Moreover, the outward extension of the thread facilitates quick assembly with the locking structure 2. The locking structure 2 includes a threaded sleeve 201, and a... There is a threaded rod 202, and the threaded sleeve 201 and threaded rod 202 are integral structures. The threaded sleeve 201 and threaded rod 202 cooperate with each other to form a locking structure 2. The diameter of the threaded sleeve 201 is larger than the diameter of the threaded rod 202. There is a step between the threaded sleeve 201 and threaded rod 202. Specifically, the step formed by the diameter difference can be adapted to the stepped structure of the through hole to axially limit the locking structure 2 and prevent it from moving up and down in the through hole. At the same time, the step can serve as an assembly positioning reference, which makes it convenient for operators to quickly align the upper and lower adjacent locking structures 2, improves assembly efficiency, and can also distribute the force during assembly, protecting the threaded structure from damage.

[0041] In this embodiment, a set of through holes are respectively opened on the periphery of the superimposed shell 102 and the top stable shell 103. The through holes are cylindrical stepped structures. The threaded sleeve 201 is installed inside the through hole, and the threaded rod 202 passes through the inside of the through hole. The connecting bolt 5 is threadedly connected to the bottom threaded sleeve 201. The bottom threaded rod 202 and the upper threaded sleeve 201 are sequentially threadedly connected. The thread pitch is processed according to actual needs. Specifically, the integrated threaded sleeve 201 and threaded rod 202 ensure that the locking structure 2 itself is secure. For strength, the cylindrical stepped structure has a through hole that can position the threaded sleeve 201 to prevent it from shaking; through the sequential threaded connection of the connecting bolt 5, the threaded sleeve 201, and the threaded rod 202, the base 101, the stacked shell 102, and the top stable shell 103 can be detachably stacked and assembled. The number of stacked shells 102 can be increased or decreased according to the required height, and the overall height of the vacuum-formed Roman column structure 1 can be flexibly adjusted to suit different decoration scenarios. A hexagonal groove is opened at the top of the threaded rod 202, and the hexagonal groove makes it easy to rotate the threaded rod 202 with a wrench.

[0042] In this embodiment, a set of locking structures 2 are installed at the edge of the stacked shell 102. A set of locking nuts 3 are installed at the periphery of the top seat 104. A set of bolt mounting holes are opened at the periphery of the top seat 104. The bolt mounting holes are cylindrical stepped structures. The locking nuts 3 are inserted into the bolt mounting holes. A large end is provided at the top of the locking nuts 3. The uppermost threaded rod 202 is connected to the inner thread of the locking nuts 3. The connection step requires the use of a wrench to rotate the locking nuts 3 for bolt connection. The thread pitch is processed according to actual needs. Specifically, the bolt mounting holes of the cylindrical stepped structure can hide the large end of the locking nuts 3, keeping the top of the Roman column aesthetically pleasing. Through the threaded connection between the locking nuts 3 and the uppermost threaded rod 202, the top stable shell 103 and all the stacked components below can be finally locked and fixed to prevent loosening and ensure the overall structural stability of the Roman column.

[0043] In this embodiment, a set of anti-loosening pins 4 are installed on the upper part of the capping seat 104. A set of mounting holes corresponding to the anti-loosening pins 4 are opened on the upper part of the capping seat 104. The mounting holes are connected to the bolt mounting holes of the capping seat 104. The anti-loosening pins 4 are installed inside the mounting holes. The anti-loosening pins 4 are installed and positioned by pressing or riveting. Specifically, the design of the connected mounting holes allows the anti-loosening pins 4 to contact the upper part of the large end of the locking nut 3 after installation, effectively preventing the threads from loosening due to vibration during long-term use. The pressing or riveting installation method can be selected according to the requirements, which not only ensures that the anti-loosening pins 4 are firmly installed, but also facilitates disassembly during later maintenance, ensuring the long-term stability of the Roman column top locking structure 2.

[0044] Example 2, based on Example 1, such as Figures 1-6 As shown, patterns can be added to the vacuum-formed Roman column structure 1 according to actual needs for aesthetic purposes. Protective caps can also be installed at the positions of the positioning grooves 107 during transportation of the vacuum-formed Roman column structure 1, and then removed sequentially during assembly.

[0045] The working principle of this embodiment:

[0046] Check the integrity of each component of the thermoformed Roman column, including the base 101, the required number of stacked shells 102, the top stabilizing shell 103, the capping seat 104, the reinforcing mesh 105, the reinforcing ring 106, the locking structure 2, the locking nut 3, the anti-loosening pin 4, and the connecting bolt 5.

[0047] Install the reinforcing mesh 105 onto the inner side of the base 101, align the reinforcing mesh 105 with the mounting groove, apply appropriate pressure to press the reinforcing mesh 105, and use the friction between the reinforcing mesh 105 and the inner wall of the mounting groove to achieve positioning;

[0048] Assemble the base 101 and the connecting bolt 5. Align the large end of the connecting bolt 5 with the cylindrical stepped bolt mounting hole on the periphery of the base 101, insert it from the inside and press gently to extend the threaded end of the connecting bolt 5 outward, in preparation for the subsequent docking steps.

[0049] Assemble the locking structure 2 and the stacked housing 102. Take one stacked housing 102 and align the reinforcing ring 106 with the positioning groove 107 above the bolt mounting hole of the base 101. Slowly lower the stacked housing 102 so that the reinforcing ring 106 is inserted into the positioning groove 107, thus completing the positioning of the stacked housing 102 and the base 101. Then, use a wrench to rotate the threaded rod 202 and tighten it to complete the stable connection between the stacked housing 102 and the base 101. Next, assemble the stacked housing 102 in sequence according to the required height. If the height reaches two meters after installing four sets of stacked housing 102, continue to tighten the threaded rod 202 as described above to complete the stable stacking of one set of stacked housing 102.

[0050] Next, assemble the top stabilizing housing 103 and the topmost stacked housing 102, aligning the bottom reinforcing ring 106 with the positioning groove 107. Install the top cap 104 above the top stabilizing housing 103. Then, install a set of locking nuts 3 into the bolt mounting holes of the top cap 104 and tighten the locking nuts 3 with a wrench to complete the stable connection of the top stabilizing housing 103, the stacked housing 102 and the top cap 104.

[0051] Align the anti-loosening pin 4 with the mounting hole above the capping seat 104 that connects to the bolt mounting hole. Choose either pressing or riveting method for installation as needed. If pressing is selected, apply pressure directly to press the anti-loosening pin 4 into the mounting hole. If riveting is selected, use a riveting tool to install the anti-loosening pin 4. After the anti-loosening pin 4 is installed, the locking nut 3 is locked in place.

[0052] If the height of the Roman column needs to be adjusted later, remove the anti-loosening pin 4, unscrew the locking nut 3 with a wrench, and remove the top cap 104 and the top stabilizing housing 103; continue to assemble or disassemble the superimposed housing 102 and stabilize it in accordance with the above steps.

Claims

1. A height-adjustable thermoformed Roman column structure, characterized in that, include: The vacuum-formed Roman column structure (1), the stacked shell (102), and the capping seat (104) are provided. The vacuum-formed Roman column structure (1) includes a base (101), a set of stacked shells (102) are installed above the base (101), a top stabilizing shell (103) is installed above the stacked shells (102), a capping seat (104) is installed above the top stabilizing shell (103), a set of connecting bolts (5) are installed around the base (101), a stacked locking structure (2) is installed at the edge of the stacked shells (102), a set of locking nuts (3) is installed around the capping seat (104), and a set of anti-loosening pins (4) is installed above the capping seat (104).

2. The height-adjustable thermoformed Roman column structure according to claim 1, characterized in that, A set of bolt mounting holes are provided on the periphery of the base (101). The large end of the connecting bolt (5) is installed inside the bolt mounting hole, and the thread of the connecting bolt (5) extends outward.

3. The height-adjustable thermoformed Roman column structure according to claim 1, characterized in that, The locking structure (2) includes a threaded sleeve (201), and a threaded rod (202) is provided above the threaded sleeve (201). The threaded sleeve (201) and the threaded rod (202) are an integral structure. The threaded sleeve (201) and the threaded rod (202) cooperate with each other to form the locking structure (2). A set of through holes are opened at the periphery of the superimposed shell (102) and the top stable shell (103). The threaded sleeve (201) is installed inside the through hole. The threaded rod (202) passes through the inside of the through hole. The connecting bolt (5) is threadedly connected to the bottom threaded sleeve (201). The bottom threaded rod (202) and the top threaded sleeve (201) are threadedly connected in sequence.

4. The height-adjustable thermoformed Roman column structure according to claim 3, characterized in that, The diameter of the threaded sleeve (201) is larger than the diameter of the threaded rod (202), and a step is provided between the threaded sleeve (201) and the threaded rod (202).

5. A height-adjustable thermoformed Roman column structure according to claim 1, characterized in that, A set of bolt mounting holes are opened on the periphery of the capping seat (104). The locking nut (3) is inserted into the bolt mounting hole. A large end is provided above the locking nut (3). The uppermost threaded rod (202) is connected to the inner thread of the locking nut (3). The connection step requires the use of a wrench to rotate the locking nut (3) for bolt connection.

6. A height-adjustable thermoformed Roman column structure according to claim 1, characterized in that, The base (101) has an installation groove on its inner side, and a reinforcing mesh (105) is installed on the inner side of the installation groove. A reinforcing mesh (105) is also installed on the inner side of the stacked shell (102). The outer side of the reinforcing mesh (105) is in contact with the inner wall of the base (101) and the stacked shell (102), respectively.

7. A height-adjustable thermoformed Roman column structure according to claim 1, characterized in that, A set of mounting holes corresponding to the anti-loosening pin (4) are opened at the upper position of the top seat (104). The mounting holes are connected to the bolt mounting holes of the top seat (104), and the anti-loosening pin (4) is installed inside the mounting holes.

8. A height-adjustable thermoformed Roman column structure according to claim 1, characterized in that, The bottom of the stacked shell (102) and the top stable shell (103) are respectively provided with a set of reinforcing rings (106). The reinforcing rings (106) and the through holes are respectively connected. The through holes of the stacked shell (102) and the top stable shell (103) and the bolt mounting holes of the base (101) and the capping seat (104) are respectively provided with a positioning groove (107) at the top position. The positioning groove (107) corresponds to the reinforcing ring (106). The reinforcing ring (106) extends into the interior of the positioning groove (107). The base (101), the stacked shell (102), the top stable shell (103), the capping seat (104), the reinforcing mesh (105), the reinforcing ring (106), and the positioning groove (107) cooperate with each other to form a vacuum-formed Roman column structure (1).

9. A height-adjustable thermoformed Roman column structure according to claim 3, characterized in that, A hexagonal groove is provided at the upper position of the threaded rod (202).

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