Bone ash storage structure with modular assembly structure

Abstract

The invention discloses a bone ash storage structure with a modular assembly structure, which comprises a structure main body formed by a top structure, an array type storage module and a base from top to bottom in sequence, the top structure is an integrated structure, and the array type storage module is longitudinally covered by the cross section of the bottom; a fixing position for framing and fixing the top end of the array type storage module is formed at the bottom of the array type storage module, the array type storage module is formed by piling and fixing all independent container assemblies, each container assembly comprises a container plate body and a containing cavity defined by the container plate body, and the base is of an integrated structure and comprises a base body; the connecting table top is formed at the top end of the base table body and used for being fixed to the bottom of the array type storage module, and one side of the base table body protrudes outwards and is provided with an object placing table used for placing objects. The problems that in the prior art, a modular bone ash storage structure is lacked, and an existing structure is inconvenient to assemble and expand are solved.

Description

Technical Field

[0001] The present invention relates to the field of columbariums, and particularly to a columbarium structure with a modular assembly structure. Background Art

[0002] A columbarium is a place for the remains of the deceased, which is an indispensable important item and cultural inheritance in the Chinese civilization's funeral ceremony. It has various forms and diverse materials, including simple and elegant wooden columbariums and noble and elegant jade urns, as well as columbarium racks with various shapes highlighting family culture. Each columbarium product contains unique cultural connotations and technological essence, and is a fine product crafted by artisans with painstaking efforts and wisdom. It is not only a mourning and remembrance of the deceased, but also a respect and awe for life, and a cultural inheritance.

[0003] In addition to the individual columbarium storage method, there is also a great demand for family-style and ancestral hall-style forms that require combined storage. For example, the existing columbarium structures in cemeteries will first open two or more "storage rooms" inside according to the needs of the family members, and then place the remains according to the actual situation to achieve the combined storage of the remains of the family.

[0004] However, the existing combined storage methods of columbariums lack modular assembly characteristics in assembly, and the construction speed is slow. Each component often needs to be cast and assembled on-site temporarily, which not only consumes a large amount of manpower and material resources, but also does not have the characteristics of being easy to expand combined storage (for example, when combined storage needs to be increased). If combined storage needs to be increased, the structure can only be disassembled or damaged first, and then closed after combined storage. In this way, it further increases the manpower and material resources, and the efficiency is low, and it also increases the psychological burden of the family members.

[0005] In view of this, the present technical solution proposes a columbarium structure with a modular assembly structure. This structure adopts a modular assembly structure, which is easy to expand, not only ensures the production efficiency before leaving the factory, but also is convenient for transportation and rapid on-site installation. It can be highly matched with the existing placement space in the cemetery, and there is no need to transform the existing cemetery, and there is no need to demolish the existing structure when expanding. Summary of the Invention

[0006] The technical solution of the present invention aims to solve at least one of the technical problems in the related art to some extent. Therefore, the main purpose of the present invention is to provide a columbarium structure with a modular assembly structure, aiming to solve the problems of the lack of a modular columbarium structure in the existing technology, and the inconvenience of assembly and expansion of the existing structure.

[0007] To achieve the above object, the present invention provides a columbarium structure with a modular assembly structure, including a structure main body composed of a top structure, an array-type storage module, and a base from top to bottom in sequence.

[0008] The top structure is an integral structure, and the bottom cross-section longitudinally covers the array storage module, and a fixing position for enclosing and fixing the top of the array storage module is formed at the bottom.

[0009] The array storage module is fixedly composed of stacking individual container components. The container component includes a container plate body and a containing chamber formed by enclosing the container plate body.

[0010] The base is an integral structure. It includes a base main body and a connection tabletop formed at the top of the base main body for fixing with the bottom of the array storage module. A placement table for placing items protrudes outward from one side of the base main body.

[0011] As a further solution of the present invention, the container component further includes a limiting plate for preventing displacement after assembly. The limiting plate is arranged on two opposite sides at the top of each containing chamber. The limiting plate is in the shape of a baffle, and the middle position thereof blocks and limits the gap at the joint of two adjacent container components above and below.

[0012] As a further solution of the present invention, the array storage module is fixedly composed of stacking at least 5 layers of the container components, and the number of the containing chambers arranged in the horizontal direction of a single layer of the container component is at least 3. Each of the containing chambers of each layer is integrally formed by pouring the container plate body.

[0013] As a further solution of the present invention, the top structure is in the shape of a roof. The top structure includes a ridge arranged above the fixing position. The ridge extends downward and covers both sides, and an outer edge for blocking the array storage module below is formed at the edge.

[0014] As a further solution of the present invention, a top hanging part for facilitating observation and identification is arranged at the top of the array storage module. The top hanging part includes a hanging plate body detachably connected to the array storage module and a hanging panel arranged on the outer facing side of the hanging plate body.

[0015] As a further solution of the present invention, side hanging parts for displaying information are arranged on both sides of the array storage module. The side hanging part includes a side plate main body and a display surface arranged on the outer side of the side plate main body.

[0016] As a further solution of the present invention, edges for covering both sides of the array storage module are formed on both sides of the side plate main body.

[0017] As a further solution of the present invention, the side plate main body is detachably connected to the array storage module, and a hanging part for hanging on the side of the array storage module is arranged on the back of the side plate main body.

[0018] As a further solution of the present invention, the assembly steps of the structural body include:

[0019] After determining the overall orientation of the structural body, fix the base at the corresponding placement position and make the placement table face forward.

[0020] Stack the container components upward on the connection tabletop in sequence according to the front orientation and fix them to form an array-type storage module.

[0021] Fix the top structure to the top of the array-type storage module through the fixing position at its bottom.

[0022] As a further solution of the present invention, the expansion steps of the array-type storage module include:

[0023] Remove the top structure, add the container components, and then assemble the top structure with the array-type storage module.

[0024] The beneficial effects of the present invention are as follows:

[0025] The ash storage structure with a modular assembly structure proposed by the present invention addresses the core problems of the existing ash storage structures, such as the lack of modular design, low assembly efficiency, and the need for demolition during expansion, through modular components and detachable structures. In traditional processes, family-style ash co-storage requires on-site casting of components, which is time-consuming and cannot be flexibly expanded. When adding storage positions, the original structure often needs to be damaged, consuming resources and adding psychological burden to the family members. This solution adopts three major modules: the top structure, the array-type storage module, and the base. Among them, the array-type storage module is composed of multiple container components formed by one-time casting and stacked together. Each component is self-locked and aligned through a limit plate to ensure stable stacking and sealed gaps. The integrated connection tabletop of the base provides precise positioning, and the placement table optimizes the functional layout. The roof-shaped top structure enhances rigidity through the central ridge and outer edge, while also preventing dust and water. During expansion, only the top needs to be disassembled, the container components are added, and then reassembled. There is no need for cutting or demolition throughout the process, avoiding construction pollution and structural damage.

[0026] Among them, the detachable hanging panel of the top hanging part and the edge-wrapped display surface of the side hanging part are made of wear-resistant materials to clearly mark information and support quick replacement, solving the pain points of easy wear and difficult update of traditional engraving. This simple modular structure enables ordinary personnel to complete the construction, significantly shortening the construction period. The modular design also reduces the difficulty of transportation and warehousing and adapts to different cemetery spaces. For example, the combination of 5-layer vertical stacking and 3 horizontal chambers in a single layer not only meets the high-density storage requirements but also retains the basic framework for subsequent expansion. In summary, through features such as modularization, lossless expansion, and convenient information maintenance, this solution significantly improves the assembly efficiency, structural stability, and cultural expression effect, providing an efficient, flexible, and user-friendly solution for family-style ash storage. Brief Description of the Drawings

[0027] In order to more clearly illustrate the embodiments of the technical solution of the present invention or the invention technical solution in the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or the prior art. Obviously, the drawings in the following description are only some embodiments of the technical solution of the present invention. For those of ordinary skill in the art, without creative efforts, other drawings can be obtained based on the structures shown in these drawings.

[0028] Figure 1 It is a schematic diagram of the overall structure of the main body of the present invention.

[0029] Figure 2 It is a schematic diagram of the overall setting of the top structure, array storage module and base in the present invention.

[0030] Figure 3 It is a three-dimensional schematic diagram of the top structure in the present invention.

[0031] Figure 4 It is a schematic diagram of the setting of each component of the top structure in the present invention.

[0032] Figure 5 It is a schematic diagram of the side view angle of the top structure in the present invention.

[0033] Figure 6 It is a schematic diagram of the side top view angle of the top structure in the present invention.

[0034] Figure 7 It is a schematic diagram of the overall structure of the container assembly in the present invention.

[0035] Figure 8 It is a schematic diagram of the setting of the accommodation chamber, limiting plate and container plate body in the present invention.

[0036] Figure 9 It is a schematic diagram of one side view angle of the container assembly in the present invention.

[0037] Figure 10 It is a schematic diagram of the building action of the array storage module in the present invention.

[0038] Figure 11 It is a schematic diagram of the overall structure of the side hanger in the present invention.

[0039] Figure 12 It is a schematic diagram of each component of the side hanger in the present invention.

[0040] Figure 13 It is a schematic diagram of the display surface of the side hanger in the present invention.

[0041] Figure 14It is a schematic diagram of the assembly action of the side hanging part in the present invention.

[0042] Figure 15 It is a schematic diagram of the components of the base in the present invention.

[0043] Figure 16 It is a schematic diagram of the front view of the base in the present invention.

[0044] Figure 17 A schematic diagram of a side view of the base in the present invention

[0045] Figure 18 It is a front schematic diagram of the top hanging part in the present invention.

[0046] Figure 19 It is a schematic diagram of the side structure of the top hanging part in the present invention.

[0047] Figure 20 It is a schematic block diagram of the assembly steps of the structural body of the present invention.

[0048] Figures 21 - 23 It is a schematic diagram of another external form of the present invention.

[0049] [Main parts / assembly reference numerals]

[0050]

[0051] DETAILED DESCRIPTION

[0052] as follows:

[0053] Please see attached Figures 1 - 20 ,

[0054] The main structure comprises a structural main body (1) which is composed of a top structure (10), an array storage module (11) and a base (14) in sequence from top to bottom. The top structure (10) is an integrated structure. The bottom cross section covers the array storage module (11) longitudinally, and the bottom forms a fixing position (102) for framing and fixing the top of the array storage module (11). The array storage module (11) is composed of individual container components (110) stacked and fixed. The container component (110) comprises a container plate body (1100) and a accommodating chamber (1101) formed by enclosing the container plate body (1100). The base (14) is an integrated structure, which comprises a base body (140) and a connecting table surface (141) formed at the top of the base body (140) for fixing with the bottom of the array storage module (11). One side of the base body (140) is protruding outward and is provided with a storage table (142) for placing articles.

[0055] Here’s how it works:

[0056] This technical solution effectively improves the deficiencies of the existing ash storage structure in terms of modular assembly and expandability. In the prior art, the family-style or ancestral hall-style ash co-storage structures generally have problems of low assembly efficiency and difficult expansion. The main reason is that each component lacks standardized design, and on-site temporary pouring and assembly are required, consuming a large amount of manpower and material resources. Especially when additional storage space is needed, the existing structure must be disassembled or damaged, which is not only cumbersome to operate but also likely to cause psychological burden to the family members. Through modular design, this technical solution adopts three core components: the top structure (10), the array-type storage module (11), and the base (14), significantly improving the assembly efficiency and expansion flexibility. Among them, the array-type storage module (11) is composed of a plurality of independent container components (110) stacked and fixed. Each container component (110) is enclosed by a container plate body (1100) formed by one-time pouring to form an accommodation chamber (1101), which not only ensures production consistency but also facilitates transportation and rapid on-site construction. The base (14) adopts an integral structure, and its connection tabletop (141) is precisely matched with the bottom of the array-type storage module (11). The design of the placement table (142) further optimizes the functionality. The top structure (10) frames and reinforces the top of the module through the bottom fixing position (102) to form a stable overall structure (1).

[0057] To solve the problem of component displacement after assembly, baffle-shaped limiting plates (1102) are provided on the top of the two pairs of sides of the container component (110), which can effectively block the gaps at the joints between the upper and lower layers and ensure stable stacking. Preferably, the array-type storage module (11) supports at least 5 layers of stacking, and at least 3 accommodation chambers (1101) are arranged horizontally on each layer, which not only meets the demand for intensive storage but also realizes flexible expansion through modular combination. During expansion, only the top structure (10) needs to be removed, and after adding container components (110), reassembly can be carried out without damaging the original structure (1), greatly reducing the maintenance cost and time. In addition, the detachable design of the top hanging parts (12) and the side hanging parts (13) further improves the convenience of logo display. The top hanging parts (12) are connected to the module through the hanging part plate body (120), and the hanging part panel (121) is convenient for information recognition; the side hanging parts (13) adopt a wrapped side plate body (130), and the back hanging parts (131) support quick installation, and the display surface (133) can flexibly update the content, taking into account both practicality and aesthetics.

[0058] This technical solution simplifies the structure construction into three steps, namely fixing the base (14), stacking the container components (110) to form an array storage module (11), and installing the top structure (10). The whole process does not require complex tools or on-site processing, significantly shortening the construction period. Compared with traditional processes, the modular design not only reduces the difficulty of transportation and warehousing, but also can adapt to different cemetery spaces, avoiding the need to transform the existing environment. This solution fundamentally solves the problems of low assembly efficiency and high expansion cost in the existing technology through a highly integrated structure design (1) and an extensible assembly logic, providing an efficient, flexible and sustainable solution for the family-style co-deposit of ashes.

[0059] Moreover, this solution can also be integrated with intelligence and digitization. For example, management methods such as remote cloud control and multi-terminal synchronization can be adopted, and the Internet of Things can be integrated. By using 5G (or various communication means), functions such as Internet of Things monitoring, positioning, protection, and feature recognition can be realized, enabling it to have a fast feedback mechanism, facilitating centralized management and monitoring characteristics. It can also integrate sound, light, and electricity to achieve modern and realistic scenarios.

[0060] Refer to the appendix Figure 8 , in a preferred embodiment of the present invention: the container component (110) further includes a limiting plate (1102) for preventing displacement after assembly. The limiting plate (1102) is arranged on the top two opposite sides of the grid accommodation chamber (1101). The limiting plate (1102) is in the shape of a baffle, and the middle position thereof blocks and limits the gap at the joint of the two adjacent container components (110) up and down.

[0061] In this technical solution, the limiting plate (1102) in the shape of a baffle arranged on the top two opposite sides of the container component (110) is mainly used to solve the problem of easy displacement of components during modular stacking. The limiting plate (1102) is located on both sides of the top of each accommodation chamber (1101) and is in a vertical baffle structure. Its height and width exactly cover the gap at the joint of the adjacent container components (110) up and down. When the container components (110) are stacked layer by layer, the middle area of the limiting plate (1102) will be stuck into the bottom edge of the upper component, forming a physical barrier to effectively limit the sliding or misalignment in the horizontal direction. This design can not only ensure the vertical alignment accuracy of the stacking structure, but also avoid dust or sundries from entering the gap by blocking the joint, improving the overall sealing performance. The baffle shape of the limiting plate (1102) is integrally designed with the container plate body (1100), without the need for additional fixing parts, which not only simplifies the assembly process, but also enhances the overall stability through the self-locking effect between modules. In practical applications, this structure significantly reduces the risk of component offset caused by vibration or external force, enabling the multi-layer stacked array storage module (11) to maintain a compact and regular shape for a long time.

[0062] Refer to the appendix Figure 2 , 7-10, A preferred embodiment of the present invention: The array storage module (11) is fixedly composed of at least 5 layers of container components (110) stacked, and the number of accommodation chambers (1101) provided in the horizontal direction of a single-layer container component (110) is at least 3. Each accommodation chamber (1101) of each layer is integrally formed by a container plate body (1100).

[0063] In this technical solution, the array storage module (11) through the design of vertically stacking at least 5 layers of container components (110) and having no less than 3 accommodation chambers (1101) arranged horizontally in each layer, takes into account both storage density and structural reliability. The requirement for the number of layers ensures that the module has sufficient longitudinal space utilization rate to meet the multi-position storage needs of family co-storage; the horizontal multi-chamber layout improves the single-layer capacity through modular expansion, avoiding space waste. Each accommodation chamber (1101) of each layer is integrally formed by a container plate body (1100), ensuring uniform chamber dimensions and smooth edges, eliminating gaps or misalignments caused by traditional splicing processes, and enabling precise alignment when stacking upper and lower layer components. This one-piece molding production method not only simplifies the manufacturing process but also enhances the structural strength of a single container component (110), enabling it to still stably bear weight after multi-layer stacking. Through the standardized combination of 5 layers longitudinally and 3 chambers (1101) horizontally, this module not only achieves high-density ash storage but also provides a basic framework for subsequent flexible expansion. Users can increase or decrease the number of layers or horizontal modules according to actual needs without adjusting the overall structural design (1).

[0064] Reference appendix Figures 3 - 6 , A preferred embodiment of the present invention: The top structure (10) is in the shape of a roof. The top structure (10) includes a ridge (100) provided above the fixed position (102). The ridge (100) extends and covers downward on both sides, and forms an outer edge (101) at the edge for shielding the lower array storage module (11).

[0065] The ridge (100) in the center of the top extends downward on both sides to form slopes, and the outer edge (101) at the edge extends outward to cover above the array storage module (11). This structure enhances the overall strength of the top through the longitudinal support of the ridge (100). The slope design can guide rainwater or dust to slide naturally, avoiding water accumulation or dirt accumulation; the outer edge (101) completely shields the seams at the top end of the lower module and the edges of the components, preventing external foreign objects from invading or rainwater from seeping in, and improving the sealing and cleanliness of the storage environment. At the same time, the roof shape echoes the traditional architectural style, not only meeting the functional protection requirements but also endowing the structure with a solemn and beautiful visual form.

[0066] Reference appendix Figure 18 , 19, A preferred embodiment of the present invention: A top hanging member (12) for easy observation and identification is provided at the top of the array storage module (11). The top hanging member (12) includes a hanging plate body (120) detachably connected to the array storage module (11), and a hanging panel (121) disposed on the outer facing side of the hanging plate body (120).

[0067] In this technical solution, the detachable top hanging member (12) at the top of the array storage module (11) is mainly used to improve the visibility of storage information and the convenience of management. The hanging plate body (120) is connected to the top of the module by simple means such as buckles or bolts, supporting quick installation or replacement. The hanging panel (121) on its outer side is made of wear-resistant and fade-proof material, and can clearly mark information such as the name of the deceased, the storage number, or poems, etc., facilitating family members or managers to directly identify the target position from the front and reducing the search time. This design not only avoids the problems of easy wear and difficult update of traditional engraved marks, but also realizes personalized information display through modular hanging members. For example, when it is necessary to adjust the storage information, only the hanging panel (121) or the whole hanging member (12) needs to be replaced, without modifying the module structure, which not only protects the integrity of the module but also reduces the maintenance cost.

[0068] Reference appendix Figures 11 - 14 , A preferred embodiment of the present invention: Side hanging members (13) for displaying information are provided on both sides of the array storage module (11). The side hanging members (13) include a side plate main body (130), and a display surface (133) disposed on the outer side of the side plate main body (130). Wrapping edges (132) for wrapping the two side edges of the array storage module (11) are formed on both sides of the side plate main body (130). The side plate main body (130) is detachably connected to the array storage module (11), and a hanging member (131) for hanging on the side of the array storage module (11) is provided on the back of the side plate main body (130).

[0069] The side hanging members (13) on both sides of the array storage module (11) are mainly used for information display and structural protection functions. The side plate main body (130) is installed on both sides of the module in a detachable manner. The display surface (133) on its outer side can present content such as the name of the deceased, family logo, or commemorative words, taking into account cultural expression and visual unity. The display surface (133) is made of wear-resistant and fade-proof material to ensure that the information is clearly readable for a long time, avoiding the problems of easy wear and difficult update of traditional engraving. The wrapping edge (132) structure extending on both sides of the side plate main body (130) can completely cover the edges of the module, preventing bump damage or dust intrusion, and at the same time improving the overall aesthetics. The design of the hanging member (131) on the back enables the side plate to be quickly disassembled and assembled. For example, when it is necessary to adjust the display content, only the side plate (130) needs to be replaced or the display surface (133) updated, without modifying the main structure of the module, which not only simplifies the maintenance process but also reduces the operation cost.

[0070] Reference appendix Figure 2 、 10 、20, a preferred embodiment of the present invention: The assembly steps of the structural body (1) include:

[0071] After determining the overall orientation of the structural body (1), fix the base (14) at the corresponding placement position and make the placement table (142) face forward;

[0072] Stack the container components (110) upward on the connection tabletop (141) in sequence according to the front orientation and fix them to form an array storage module (11);

[0073] Fix the top structure (10) to the top of the array storage module (11) through the fixing position (102) at its bottom.

[0074] By determining the overall orientation and fixing the base (14), it is ensured that the front of the placement table (142) faces the family members or management personnel, optimizing the functional layout and use convenience. The integrated connection tabletop (141) of the base (14) provides an accurate positioning basis for subsequent construction, avoiding the errors caused by traditional on-site casting. Stack the container components (110) layer by layer according to the front orientation to form an array storage module (11). The modular design enables each component to be self-locked and aligned through the limiting plate (1102), ensuring both the stability of vertical stacking and the quick assembly that can be used immediately, significantly shortening the construction period. The top structure (10) is fixedly framed with the top of the module through the bottom fixing position (102), using the covering and extending characteristics of the roof-shaped structure to seal the top gap, and at the same time enhancing the overall structural rigidity through the central ridge (100) and the outer edge (101). No complex tools or professional construction are required, and ordinary personnel can complete it. Moreover, when expanding, only the top (10) needs to be disassembled in the reverse direction, supplemented with components and then reassembled, completely solving the pain points of demolition and reconstruction and time-consuming and laborious in traditional processes.

[0075] Reference appendix Figure 2 , a preferred embodiment of the present invention: The expansion steps of the array storage module (11) include:

[0076] Remove the top structure (10), after adding the container components (110), then assemble the top structure (10) with the array storage module (11).

[0077] The expansion step of the array storage module (11) realizes flexible expansion through disassembly, supplementation, and recombination. When additional storage space is required, only the top structure (10) needs to be removed as a whole. Subsequently, the newly added container components (110) are stacked upward on the top of the existing module. Finally, the top structure (10) is reinstalled to complete the fixation. This process does not require cutting or demolishing the original structure (1), which not only avoids the damage to the integrity of the module caused by traditional expansion methods but also eliminates the impact of construction dust or noise on the cemetery environment. The modular design enables the newly added components to be accurately aligned with the existing modules through the limit plates (1102), ensuring that the overall structure remains stable after expansion; the detachable feature of the top structure (10) simplifies the operation process, and ordinary personnel can complete it with basic tools, significantly reducing labor and time costs. For example, when new family members are added for joint storage, only the number of layers or horizontal modules need to be supplemented as required, without waiting for complex construction or adjusting the cemetery layout. This "lossless expansion" mode not only meets the dynamic storage requirements but also minimizes the interference with the psychology of the family members.

[0078] The above are only the preferred embodiments of the technical solution of the present invention, and do not limit the patent scope of the technical solution of the present invention. Any equivalent structural transformation made by using the description and drawings of the technical solution of the present invention under the inventive concept of the technical solution of the present invention, or any direct / indirect application in other related technical fields, is included in the patent protection scope of the technical solution of the present invention.

Claims

1. An ash storage structure with a modular assembly structure, characterized in that, including a structural body composed of a top structure, an array storage module, and a base from top to bottom in sequence the top structure is an integral structure, the bottom cross-section longitudinally covers the array storage module, and a fixing position for enclosing and fixing the top end of the array storage module is formed at the bottom the array storage module is composed of a plurality of individual container components stacked and fixed, and each container component includes a container plate body and a containing chamber formed by enclosing the container plate body the base is an integral structure, which includes a base body and a connection table surface formed at the top end of the base body for fixing with the bottom of the array storage module, and a storage table for placing items protrudes outward from one side of the base body 2. The columbarium structure with a modular assembly structure according to claim 1, characterized in that, each container component further includes a limiting plate for preventing displacement after assembly. The limiting plate is arranged on two opposite sides of the top of each containing chamber. The limiting plate is in the shape of a baffle, and the middle position thereof blocks and limits the gap at the joint between two adjacent container components up and down 3. The ash storage structure with a modular assembly structure according to claim 2, characterized in that, the array storage module is composed of at least 5 layers of the container components stacked and fixed, and the number of the containing chambers arranged in the horizontal direction of a single layer of the container components is at least 3, and each of the containing chambers of each layer is integrally formed by pouring the container plate body 4. The columbarium structure with a modular assembly structure according to claim 1, wherein the top structure is in the shape of a roof. The top structure includes a ridge arranged above the fixing position. The ridge extends downward and covers both sides, and an outer edge for blocking the array storage module below is formed at the edge 5. The columbarium structure with a modular assembly structure according to claim 1, wherein a top hanging piece for facilitating observation and identification is arranged at the top of the array storage module. The top hanging piece includes a hanging piece plate body detachably connected to the array storage module and a hanging piece panel arranged on the outer facing side of the hanging piece plate body 6. The ash storage structure with a modular assembly structure according to claim 1, characterized in that, side hanging pieces for displaying information are arranged on both sides of the array storage module. The side hanging pieces include a side plate main body and a display surface arranged on the outer side of the side plate main body 7. The urn storage structure with a modular assembly structure according to claim 6, wherein borders for covering both sides of the array storage module are formed on both sides of the side plate main body 8. The ash storage structure with a modular assembly structure according to claim 7, characterized in that, the side plate main body is detachably connected to the array storage module, and a hanging piece for hanging on the side of the array storage module is arranged on the back of the side plate main body 9. The ash storage structure with a modular assembly structure according to claim 1, characterized in that, the assembly steps of the structural body include S1. After determining the overall orientation of the structural body, fix the base at the corresponding placement position and make the storage table face the front S2. Build the container components upward on the connection table surface in sequence according to the front orientation and fix them to form an array storage module S3. Fix the top structure to the top end of the array storage module through the fixing position at the bottom thereof 10. The columbarium storage structure with a modular assembly structure according to claim 9, wherein, the expansion steps of the array storage module include C1. Remove the top structure, add the container components, and then assemble the top structure with the array storage module

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