Multi-function modular structures with configuration modular panels

Abstract

A modular container system comprises: a plurality of panels configured to removably connect to each other in various configurations to form one or more multi-functional modular structures 100; holding

Description

[002] The storage and transportation of various objects often necessitate the use of packaging solutions that prioritize convenience, efficiency, and adaptability. Commonly utilized options include cardboard boxes, plastic bags, polystyrene containers, backpacks, suitcases, freezers, and trolleys. While these solutions meet immediate needs, they frequently contribute to significant challenges related to waste management, space inefficiency, reparability, durability, and sustainability. Packaging waste is a particularly pressing concern, with many materials discarded as soon as they are used. Examples include cardboard boxes from deliveries, plastic bags for clothing shipments, and polystyrene boxes for fresh seafood, all of which contribute to environmental pollution and landfill waste.

[003] A critical issue associated with these packaging solutions is their space inefficiency. Containers used for transportation and storage often occupy significant space, even when empty. This creates challenges for businesses and consumers alike, as various sizes are required to accommodate different object dimensions. For example, bulky packaging like polystyrene boxes cannot be easily compressed, making them difficult to store when not in use. As a result, storage facilities face increased operational costs and inefficiencies stemming from the need to stock multiple container types or sizes.

[004] The affordability of cardboard packaging has made it a popular choice among manufacturers and distributors, but its cost-effectiveness is limited to initial production and use. These containers lack durability and the versatility needed for specialized requirements, such as thermal insulation or moisture control. High-quality reusable containers are often prohibitively expensive, further complicating their adoption on a larger scale. Consequently, businesses must weigh the benefits of cheaper single-use options against the long-term inefficiencies and environmental impact they create.

[005] The quality of many packaging solutions poses another significant challenge. Most containers, especially those designed for single use, are of poor quality and prone to damage during transport or adverse conditions. Cardboard boxes, for instance, are easily tom or crushed, while polystyrene containers break under pressure. High-end reusable containers fare better but are often difficult to repair due to a lack of spare parts or tools. When spare parts or required tools are not available, damaged containers are usually discarded, further contributing to waste.

[006] Additionally, current packaging solutions lack the adaptability to meet diverse transportation and storage needs. For example, containers for chilled or frozen goods require minimal heat exchange to preserve freshness, while those for hot food must retain warmth during transport. Fresh produce demands breathable packaging to prevent condensation and mold, whereas dry goods need airtight containers to protect against moisture and pests. Existing designs fail to offer versatile configurations, such as switching between single-walled and double-walled structures, which are critical for optimizing properties like stability, weight, and insulation.

[007] Given these limitations, there is a clear need for advanced container designs that address the shortcomings of existing packaging solutions. The ideal design would feature adjustable capacity to accommodate various object sizes and shapes, reducing the need for multiple container types and saving storage space. Modular and repairable components would enhance long-term usability and minimize waste by allowing easy repairs and replacements. Adaptable wall configurations could cater to specific thermal and air permeability requirements, ensuring suitability for diverse applications.

[008] Incorporating sustainability and durability into such a design would further promote environmental responsibility. Reusable materials would help shift away from the singleuse culture, while cost-effective production methods would make advanced structures or containers accessible to manufacturers, distributors, and consumers. By addressing issues related to space, cost, and quality, these innovations could revolutionize packaging practices and support more sustainable and efficient storage and transportation solutions. Summary of the Invention

[009] According to an aspect of the invention, there is provided a modular container system that comprises a plurality of panels, a plurality of holding brackets, a plurality of connecting members, and one or more locking members. In one embodiment herein, each panel incorporates one or more patterns to facilitate different functionality. The plurality of panels is configured to removably connect to each other in various configurations to form one or more multi-functional modular structures or containers with various sizes used to store and transport one or more objects.

[010] In one embodiment herein, the one or more patterns of the plurality of panels include a lattice pattern and a perforated pattern. In particular, the inclusion of structural patterns like lattice, perforated, enhances the strength-to-weight ratio, reduces material usage, and improves ventilation or heat dissipation as required by specific applications. [Oil] In one embodiment herein, the plurality of panels is configured to be arranged in the various configurations to form the one or more multi-functional modular structures for facilitating heat-insulating, heat-permeable, airtight, and air-permeable walls, thereby ensuring safe storage and transportation of the one or more objects.

[012] In one embodiment herein, the at least two or more panels with the lattice pattern are stacked to create a solid pattern panel used to form the multi-functional modular structures for facilitating air-permeable and heat-permeable walls. Specifically, the stackable lattice panels provide flexibility in design, allowing users to create solid walls or surfaces as needed for specific applications, such as creating barriers for sensitive materials or closed compartments.

[013] In one embodiment herein, the at least two or more panels with the lattice pattern are stacked in an alternative to create a perforated pattern panel used to form the multifunctional modular structures for facilitating airtight and heat-insulating walls. In particular, the stackable lattice panels for perforated designs allow for improved airflow and visibility, making the system ideal for applications like food storage or display shelves.

[014] In one embodiment herein, the plurality of panels is configured to be assembled to create various products including bookcases, stools, tables, benches, and chairs. The plurality of panels is designed to interlock at comers, as facilitated by the arrangement of one or more holding brackets.

[015] In one embodiment herein, one or more holding brackets are integrated to a periphery of all sides of each of the plurality of panels. One or more holding brackets are configured to facilitate precise alignment and secure connection with corresponding holding brackets of at least one adjacent panel during formation of the one or more multifunctional modular structures.

[016] In one embodiment herein, the plurality of connecting members having one or more protrusions and is configured to be removably connected with each other by vertically positioning in alternating positions. In one embodiment herein, the one or more locking members are configured to securely hold the plurality of connecting members to form a locking device. The one or more locking members having a plurality of slots, which is configured to engage with the one or more protrusions of the plurality of connecting members, thereby creating a secure connection and forming the locking device.

[017] In one embodiment herein, the plurality of connecting members comprises the one or more protrusions on inner and outer surfaces for receiving the plurality of slots of the one or more locking members. The protrusions on the connecting members facilitate precise alignment and secure connections, ensuring robustness and ease of assembly. This feature minimizes assembly errors and enhances the system's overall durability during repeated use or reconfiguration.

[018] In one embodiment herein, the locking device is adapted to insert through the plurality of holding brackets of at least two panels of the plurality of panels to secure each other in a position during formation of the one or more multi-functional modular structures, thereby maintaining the structural integrity and stability of the one or more multifunctional modular structures by keeping the plurality of panels in a fixed arrangement.

[019] In one embodiment herein, the locking devices constructed with connecting members and locking mechanisms, enhance the stability and integrity of the modular structure. The customizable length of the locking devices allows for greater flexibility in constructing containers of varying sizes and configurations.

[020] In one embodiment herein, the modular container system comprises a tube device that is adapted to be inserted through the plurality of holding brackets of at least two panels of the plurality of panels to secure each other in a position during formation of the one or more multi-functional modular structures, thereby maintaining the structural integrity and stability of the one or more multi-functional modular structures by keeping the plurality of panels in a fixed arrangement.

[021] The tube device can serve as replacements for the locking device in the formation of one or more multi-functional modular structures. The tube device can be manufactured in varying lengths to accommodate different design requirements. The tube devices are joined at each end using clips, employing a mechanism similar to that found in tent poles or kayak paddles, thereby ensuring secure and flexible connections.

[022] In one embodiment herein, at least two of the plurality of panels having an identical pattern are stacked together using the plurality of holding brackets to form a single integrated panel, with two opposing sides of the single integrated panel featuring same arrangement of the plurality of holding brackets, while the remaining two opposing sides feature a complementary arrangement of the plurality of holding brackets.

[023] In one embodiment herein, the one or more multi-functional modular structures are configured to store cooled and frozen items, food items, dried food items, pharmaceutical products, perishable goods, temperature-sensitive electronics, chemicals, and biological samples, thereby ensuring optimal conditions for each through heat-insulating, heat-permeable, airtight, and air-permeable walls. The one or more multi-functional modular structures are equipped with additional components such as a handle, a shoulder strap, a pair of shoulder straps and an actuation unit. Brief Description of Drawings

[024] The invention will be described in more detail, by way of example, with reference to the following drawings:

[025] Figure 1A depicts an embodiment of the present invention, an isometric view of a multifunctional modular structure;

[026] Figure IB depicts an embodiment of the present invention, an exploded view of the multifunctional modular structure;

[027] Figure IC depicts an embodiment of the present invention, an isometric view of the multi-functional modular structure without a lid;

[028] Figure 2A depicts an embodiment of the present invention, an isometric view of a compact panel;

[029] Figure 2B depicts an embodiment of the present invention, an isometric view of a stable structure;

[030] Figure 2C depicts an embodiment of the present invention, an isometric view of a stack assembly;

[031] Figure 2D depicts an embodiment of the present invention, an isometric view of a structural compact assembly;

[032] Figure 3 depicts an embodiment of the present invention, a schematic view of a modular stack assembly with one holding bracket on each side of the panel;

[033] Figure 4A depicts an embodiment of the present invention, an isometric view of two identical panels with perforated patterns and with one holding bracket on each side for preparing an airtight stack;

[034] Figure 4B depicts an embodiment of the present invention, an isometric view of two identical panels with perforated patterns and with one holding bracket on each side for preparing an air-permeable stack;

[035] Figure 5A depicts an embodiment of the present invention, a schematic view of a compact structural module with one holding bracket on each side;

[036] Figure 5B depicts an embodiment of the present invention, a schematic view of a primary compact stack assembly;

[037] Figure 5C depicts an embodiment of the present invention, a schematic view of a secondary compact stack assembly;

[038] Figure 6A depicts an embodiment of the present invention, an exploded view of the multi-functional compact modular structure using the primary compact stack assembly;

[039] Figure 6B depicts an embodiment of the present invention, an exploded view of the multifunctional compact modular structure using the secondary compact stack assembly;

[040] Figure 7A depicts an embodiment of the present invention, an isometric view of a panel with lattice pattern and with two holding brackets on each side;

[041] Figure 7B depicts an embodiment of the present invention, an isometric view of a panel with perforated pattern and with two holding brackets on each side;

[042] Figure 7C depicts an embodiment of the present invention, an isometric view of two identical panels with perforated pattern and with two holding brackets on each side for preparing an airtight stack;

[043] Figure 7D depicts an embodiment of the present invention, an isometric view of two identical panels with perforated pattern and with two holding brackets on each side for preparing an air-permeable stack;

[044] Figure 7E depicts an embodiment of the present invention, an isometric view of two identical panels with lattice patterns and with two holding brackets on each side and two identical panels with perforated patterns and with two holding brackets on each side that are assembled for efficient storage and transportation;

[045] Figure 7F depicts an embodiment of the present invention, an isometric view of an identical panel having perforated pattern with a logo, and QR code;

[046] Figure 7G depicts an embodiment of the present invention, an isometric view of a dense plate;

[047] Figure 7H depicts an embodiment of the present invention, an isometric view of a structural assembly;

[048] Figure 71 depicts an embodiment of the present invention, a schematic view of a stack assembly. The figure demonstrates how rotating the panel by 180 degrees facilitates precise alignment, resulting in an air-tight constellation;

[049] Figure 8 depicts an embodiment of the present invention, front views of tube devices with various sizes for inserting into one or more holding brackets of the plurality of panels;

[050] Figure 9A depicts an embodiment of the present invention, a front view of a pipe and a clip;

[051] Figure 9B depicts an embodiment of the present invention, an isometric view of the clip while bending;

[052] Figure 9C depicts an embodiment of the present invention, an isometric view of the clip while insertion into the pipe;

[053] Figure 9D depicts an embodiment of the present invention, an isometric view of the clip upon insertion into the tube to fix the tube with a holding bracket;

[054] Figure 10A depicts an embodiment of the present invention, an isometric view of two identical panels with lattice pattern for preparing a modular plate;

[055] Figure 10B depicts an embodiment of the present invention, an isometric view of an edge of a structural assembly that comprises a plurality of modular panels or plates without a plurality of tube devices;

[056] Figure 10C depicts an embodiment of the present invention, an isometric view of the plurality of tube devices arranged for the structural assembly;

[057] Figure 10D depicts an embodiment of the present invention, an isometric view of the edge of the structural assembly upon inserting the plurality of tube devices;

[058] Figure 11A depicts an embodiment of the present invention, an isometric view of a connecting member;

[059] Figure 11B depicts an embodiment of the present invention, a front view of the connecting member;

[060] Figure 1 IC depicts an embodiment of the present invention, a side view of the connecting member;

[061] Figure 1 ID depicts an embodiment of the present invention, a top view of the connecting member;

[062] Figure 12A depicts an embodiment of the present invention, a front view of a locking device secured by a plurality of connecting members using the locking member;

[063] Figure 12B depicts an embodiment of the present invention, an exploded view of the locking device secured by the plurality of connecting members using the locking member;

[064] Figure 13 A depicts an embodiment of the present invention, an isometric view of the two identical panels with lattice pattern for preparing the modular plate;

[065] Figure 13B depicts an embodiment of the present invention, an isometric view of the structural assembly that comprises the plurality of modular panels or plates without a plurality of locking members;

[066] Figure 13C depicts an embodiment of the present invention, an isometric view of the plurality of locking members without the structural assembly;

[067] Figure 13D depicts an embodiment of the present invention, an isometric view of the structural assembly upon inserting plurality of locking members; Detailed Description

[068] Figure 1A illustrates an isometric view of a multi-functional modular structure 100. Figure IB illustrates an isometric view of the multi-functional modular structure 100 without a lid. Figure IC illustrates an exploded view of the multi-functional modular structure 100 without the lid.

[069] The storage and transport of objects often require structures or containers that are convenient, efficient, and adaptable. Traditional containers, such as boxes, backpacks, and trolleys, while effective, lack the versatility to handle varying object sizes, shapes, and specific requirements like thermal or air permeability. Fixed-capacity containers demand multiple sizes, increasing costs and inefficiencies. Even adjustable designs offer limited flexibility and fail to switch between single-walled and double-walled configurations, critical for optimizing stability, weight, breathability, and thermal properties.

[070] Existing patents address modular and collapsible designs, but they fall short in offering adaptability for diverse use cases. Furthermore, traditional containers are prone to damage and are difficult to repair, often leading to wasteful replacements. Containers also struggle to meet specialized requirements: airtightness for dried goods, breathability for fresh produce, and insulation for temperature-sensitive items. Therefore, there is a need for a multi-functional modular container that has the capability of capacity adjustment, repairability, and switching wall configurations. Such innovations would enhance functionality, address diverse needs, and promote sustainability by reducing material waste and increasing container lifespan.

[071] In one embodiment herein, the multi-functional modular structure 100 comprises panels with connecting members, enabling the construction of a closed and stable multifunctional modular structure 100 of various dimensions. The multi-functional modular structure 100 minimizes material usage and reduces costs by employing just three essential components: a single type of panel, tube devices of varying lengths, and clips. The multi-functional modular structure 100 with heat-insulating or air-permeable properties through the use of two plates, offering versatility in different environmental conditions.

[072] The multi-functional modular structure 100 is prepared with or without lids, with the flexibility to assemble plates either flat or at right angles. As a tube device 115, which connects the plates 102 using one or more holding brackets 104, has a round shape, the lid can be opened and closed without an additional rotating element. The tube device 115 with the round shape eliminates the need for an additional rotating element, as the circular geometry naturally allows for smooth and unobstructed rotational motion.

[073] The tube device 115 and the holding brackets 104 maintain structural integrity, especially under dynamic loads caused by repeated operations. The circular design ensures an even distribution of forces along its circumference, reducing localized stress points that could arise with square shapes. The tube device 115 functions as a hinge by inserting into the holding brackets 104, enabling the opening and closing of the double-walled configuration.

[074] The multi-functional modular structure 100 comprises that can be stacked compactly for efficient storage and transportation, thereby saving space. The multi-functional modular structure 100 facilitates the creation of airtight or air-permeable double plates by aligning holes on the plates differently depending on user requirements. The multi-functional modular structure 100 provides ease of assembly and disassembly, thereby enabling the replacement of damaged parts without tools, and extending the lifespan.

[075] The multi-functional modular structure 100 provides additional versatility by enabling the plates to be used in applications beyond containers, such as furniture, including bookcases, stools, tables, benches, and chairs. The proposed multi-functional modular structure 100 is converted into functional accessories such as a hand suitcase, shoulder bag, backpack, or trolley case by integrating additional components like handles, straps, or wheels. The multi-functional modular structure 100 simplifies the management of spare parts by minimizing the number of component types, thereby reducing maintenance complexity.

[076] In one embodiment herein, the multi-functional modular structure 100 is designed for adaptability, efficiency, and sustainability. The multi-functional modular structure 100 uses a simple design with a minimum number of components, thereby allowing to preparation of versatile structures like containers, furniture, or luggage systems. Its modular nature ensures scalability, easy maintenance, and cost-effectiveness, catering to diverse storage and functional needs. Additionally, the multi-functional modular structure 100 is space-saving, environmentally friendly, and easy to assemble, offering solutions for both static and portable applications.

[077] In one embodiment herein, the multi-functional modular structure 100 comprises interlocking parts, as illustrated by the seamless connection of the edges of each section. The grid behind the multi-functional modular structure 100 provides a schematic representation of how the panels interlock, highlighting the design's flexibility and modularity. This grid also serves to indicate the dimensions or offer a reference for scale, as shown in Figure 1 A.

[078] Figure IB illustrates an exploded view of the multi-functional modular structure 100. In one embodiment herein, the multi-functional modular structure 100 comprises plurality of modular panels, arranged in a grid pattern. The plurality of modular panels exhibits a jigsaw-like design within interlocking edges, allowing them to be connected in multiple orientations. The interlocking edges feature notches and protrusions, enabling secure attachment between adjacent modular panels.

[079] In one embodiment herein, the plurality of modular panels, arranged in various orientations, are systematically stacked together to construct a base structure, providing foundational stability for the modular structure 100. Once the base structure is formed, at least two of the plurality of modular panels are stacked in alignment with one another and pivotably connected at both the top and bottom portions of the base structure, thereby allowing for controlled movement and structural adaptability.

[080] Subsequently, at least three modular panels are stacked together and configured to form a vertical wall structure. The vertical wall structure is pivotably attached to the left and right sides of the base structure, thereby enabling the transformation of the assembly into an open-state modular structure with an adaptable framework. The pivotable connection allows the wall structure to be adjusted or reconfigured as needed for different modular applications.

[081] Following this, an additional set of at least three modular panels are stacked and assembled to create a door structure. To complete the modular structure 100, a pair of such door structures is pivotably connected to the open-state modular structure. These door structures provide controlled access, secure enclosure, and functional versatility, thereby finalizing the transformation into a fully operational multi-functional modular structure 100. The modular nature of the assembly enables easy expansion, reconfiguration, and adaptability for various applications.

[082] Figure IC depicts the multi-functional modular structure 100 without the lid which is a rectangular container structure formed by interlocking modular panels. Each panel is connected seamlessly at its edges, showcasing the modular and scalable nature of the design. The rectangular container structure demonstrates how the modular panels can be assembled to create a robust and functional container, suitable for various storage or transportation needs. The arrangement suggests flexibility in size and configuration, allowing users to adjust the dimensions or add additional panels based on specific requirements. The design also highlights the container's stability and uniform assembly.

[083] Additionally, the modular design leverages interlocking mechanisms to ensure robust connections regardless of the chosen orientation. This adaptability not only enhances the usability of the multi-functional modular structure 100 but also underscores its innovative design, which caters to both functional efficiency and user convenience. The ability to switch between orientations seamlessly reflects the ingenuity of the modular system, enabling it to serve as a versatile solution for various applications.

[084] By offering eight distinct orientations, the system ensures that users can tailor the multifunctional modular structure 100 to their exact requirements, demonstrating the thoughtful engineering behind its development. It demonstrates how each panel can be positioned in four distinct ways, allowing for multiple configurations of the multifunctional modular container or structure 100 when the parts are interlocked. This flexibility in orientation underscores the modular panel’s adaptability, enabling it to be assembled in different configurations to meet the user’s specific needs.

[085] In another example embodiment herein, a modular container system comprises a plurality of panels 102, a plurality of holding brackets 104, a plurality of connecting members 106, and one or more locking members 110. In one embodiment herein, each panel 102 incorporates one or more patterns on a surface to improve structural integrity. The plurality of panels 102 is configured to removably connect to each other in various configurations to form one or more multi-functional modular structures 100 with various sizes used to store and transport one or more objects.

[086] In one embodiment herein, the one or more patterns of the plurality of panels 102 include a lattice pattern, a perforated pattern, a honeycomb pattern, a square pattern, a solid pattern, and a square grooved pattern. In one embodiment herein, the plurality of panels 102 is configured to be arranged in the various configurations to form the one or more multi-functional modular structures 100 for facilitating heat-insulating, heat-permeable, airtight, and air-permeable walls, thereby ensuring safe storage and transportation of the one or more objects. In one embodiment herein, the at least two or more panels 102 with the lattice pattern are stacked to create a solid pattern panel used to form the multifunctional modular structure 100 for facilitating air-permeable and heat-permeable walls.

[087] In one embodiment herein, the multi-functional modular structure 100 is constructed using at least two or more panels 102, each featuring a lattice pattern. These panels 102 are stacked alternately to create a perforated pattern panel. This configuration not only provides structural integrity but also facilitates the formation of airtight and heatinsulating walls, enhancing the container's functionality in various applications. The heat-insulating feature is particularly effective when the panels 102 comprise two plates with a lattice pattern, as the stacking method creates an empty chamber between the two plates.

[088] This empty chamber acts as a thermal barrier, significantly reducing heat transfer through the walls of the modular structure 100. By trapping air or other insulating material within the chamber, the system leverages the low thermal conductivity of the enclosed space to maintain the internal temperature of the modular structure 100, making it suitable for applications that require thermal regulation. The design ensures that the insulating properties are achieved without adding significant weight or compromising the modular structure's modularity.

[089] The airtightness further enhances the thermal performance by preventing external air or moisture from disrupting the insulating chamber, which is critical for maintaining the desired internal environment. This innovative use of lattice-patterned panels 206 (as depicted in Figure 2C) with an internal chamber not only improves the thermal efficiency of the modular structure 100 but also provides an adaptable and robust solution for diverse applications, including storage, transportation, and environmental control systems.

[090] In one embodiment herein, the plurality of panels 102 is configured to be assembled to create various products including bookcases, stools, tables, benches, and chairs. The plurality of panels 102 is designed to interlock at corners, as facilitated by the arrangement of the pair of holding brackets 104.

[091] In one embodiment herein, the plurality of holding brackets 104 is affixed to a periphery of all sides of each of the plurality of panels 102. The plurality of holding brackets 104 is configured to facilitate precise alignment and secure connection with corresponding holding brackets 104 of at least one adjacent panel 102 during formation of the one or more multi-functional modular structures 100. In one embodiment herein, the plurality of connecting members 106 having one or more protrusions 108 and is configured to be removably connected with each other by vertically positioning in alternating positions.

[092] In one embodiment herein, the one or more locking members 110 are configured to securely hold the plurality of connecting members 106 to form a locking device 114. The one or more locking members 110 having a plurality of slots 112, which is configured to engage with the one or more protrusions 108 of the plurality of connecting members 106, thereby creating a secure connection and forming the locking device 114. In one embodiment herein, the plurality of connecting members 106 comprises the one or more protrusions 108 on inner and outer surfaces for receiving the plurality of slots 112 of the one or more locking members 110.

[093] In one embodiment herein, the locking device 114 is adapted to insert through the plurality of holding brackets 104 of at least two panels of the plurality of panels 102 to secure each other in a position during the formation of one or more multi-functional modular structures 100, thereby maintaining the structural integrity and stability of the one or more multi-functional modular structures 100 by keeping the plurality of panels 102 in a fixed arrangement. The plurality of holding brackets 104 are precisely arranged to support at least eight distinct orientations of a minimum of two panels, thereby enabling a highly adaptable and versatile assembly configuration.

[094] In one embodiment herein, the one or more multi-functional modular structures 100 are configured to store cooled and frozen items, food items, dried food items, pharmaceutical products, perishable goods, temperature-sensitive electronics, chemicals, and biological samples, thereby ensuring optimal conditions for each through heat-insulating and airtight walls. The one or more multi-functional modular structures 100 are equipped with additional components such as a handle, a shoulder strap, a pair of shoulder straps and an actuation unit.

[095] In another exemplary embodiment, the multi-functional modular structure 100 comprises a plurality of panels 102, a plurality of holding brackets 104, a plurality of connecting members 106, and one or more locking members 110. In another exemplary embodiment herein, each of the plurality of panels 102 is configured with one or more patterns on a surface to improve structural integrity. The plurality of panels 102 is configured to removably connect to each other in various configurations to form the at least one multifunctional modular structure 100 with various sizes used to store and transport one or more objects.

[096] In another exemplary embodiment herein, the one or more patterns of the plurality of panels 102 include a lattice pattern, a perforated pattern, a honeycomb pattern, a square pattern, a solid pattern, and a square grooved pattern. In another exemplary embodiment herein, the plurality of panels 102 is configured to be arranged in various configurations to form the multi-functional modular structure 100 for facilitating heat-insulating, heat-permeable, airtight, and air-permeable walls, thereby ensuring safe storage and transportation of the one or more objects.

[097] In another exemplary embodiment herein, the at least two or more panels 102 with the lattice pattern are stacked to create a solid pattern panel used to form the multi-functional modular structure 100 for facilitating air-permeable and heat-permeable walls. In another exemplary embodiment herein, the at least two or more panels 102 with the lattice pattern are stacked in an alternative to create a perforated pattern panel used to form the multifunctional modular structure 100 for facilitating airtight and heat-insulating walls.

[098] In another exemplary embodiment herein, the plurality of holding brackets 104 is affixed to a periphery of all sides of each of the plurality of panels 102. The plurality of holding brackets 104 is configured to facilitate precise alignment and secure connection with corresponding holding brackets 104 of at least one adjacent panel during formation of the multi-functional modular structure 100.

[099] In another exemplary embodiment herein, the tube device 115 is adapted to insert through the plurality of holding brackets 104 of at least two panels of the plurality of panels 102 to secure each other in a position during the formation of the multi-functional modular structure 100, thereby maintaining the structural integrity and stability of the multi-functional modular structure 100 by keeping the plurality of panels 102 in a fixed arrangement.

[0100] In one example embodiment herein, the plurality of panels 102 is designed with the flexibility to be arranged in various configurations, allowing for the creation of one or more multi-functional modular structures 100. In addition, one or more multi-functional modular structures 100 are specifically engineered to incorporate a combination of heatinsulating, heat-permeable, airtight, and air-permeable walls, making them ideal for the storage and transportation of one or more objects.

[0101] In one example embodiment herein, the plurality of panels 102 can be strategically positioned and interconnected to achieve desired effects, such as maintaining optimal temperature conditions for sensitive items through heat insulation, or facilitating ventilation and airflow when needed through air-permeable sections.

[0102] Additionally, certain areas of the panels 102 may be designed to be airtight, ensuring that the contents remain sealed and protected from environmental factors. This versatility in configuration enables the structures 100 to adapt to a wide range of requirements, providing an efficient and reliable solution for preserving the integrity of stored or transported items under various environmental conditions.

[0103] The tube device 115 is then adapted to be inserted through the holding brackets 104 of at least two panels from the plurality of panels 102. This insertion ensures that the plurality of panels 102 is securely held in position, preventing any movement or misalignment. This configuration is particularly useful during the assembly of multi-functional structure 100, where the tube device 115 plays a crucial role in maintaining the structural integrity and stability of the structure 100 by keeping the panels 102 in a fixed arrangement.

[0104] In one embodiment herein, the plurality of holding brackets 104 on at least two of the plurality of panels 102 having an identical pattern are stacked together to form a single integrated panel, are strategically positioned to ensure uniform alignment and secure attachment. Specifically, two opposing sides of the single integrated panel feature identical bracket arrangements, allowing for precise interlocking when additional panels are added in a modular fashion. Meanwhile, the remaining two opposing sides are configured with a complementary bracket allocation, ensuring a seamless fit when the plurality of panels are aligned and assembled. This design facilitates a stable and structurally sound connection while maintaining uniformity and compatibility across multiple stacking configurations.

[0105] Figure 2A illustrates an isometric view of a compact panel 200. In one embodiment herein, the compact panel 200 is designed with at least four edges, and one or more holding brackets 104 are strategically affixed to these edges. The one or more holding brackets 104 are cylindrical connectors strategically positioned at varying intervals along the edges of each compact panel 200. These holding brackets 104 are designed to ensure precise alignment and secure connections with the corresponding holding brackets 104 on adjacent panels. The holding brackets 200 is optimized to prevent any interference between brackets, allowing seamless assembly using identical compact panels 300.

[0106] In one example embodiment herein, the compact panel 200 may include a single holding bracket 104 at each side. The holding bracket 104 having a cavity 105 is arranged at varying position on each edge of the compact panel 200 to enable precise alignment and robust connection with corresponding holding bracket 104 on adjacent panels. The holding bracket 104 allow the compact panel 200 to interlock seamlessly, forming a continuous, larger surface when connected.

[0107] Figure 2B illustrates an isometric view of a stable structure 202. In one embodiment herein, at least four of the plurality of compact panels 200 are arranged in a square configuration. These plurality of compact panels 200 are securely interconnected through the holding brackets 104, which are affixed to the edges of the each compact panel 200. The holding brackets 104 serve as connectors, allowing the compact panels 200 to align precisely and form the stable structure 202. The tube devices 115 are inserted through the holding brackets 104, ensuring a firm and reliable connection between the compact panels 200. This arrangement not only enhances the structural integrity of the overall system but also ensures the ease of assembly and modularity, enabling users to configure the panels in a variety of ways to meet specific functional needs.

[0108] Figure 2C illustrates an isometric view of a stack assembly 206 that includes a pair of compact panels 200. In one embodiment herein, the pair of compact panels 200 are stacked together to form the stack assembly 206. In particular, at least one of the pair of compact panels 200 is rotated by at least 180 degrees before being stacked onto the other compact panel 200, thereby ensuring proper alignment and structural integrity. The holding brackets 104 of the pair of compact panels 200 function as connectors, facilitating secure interlocking and assembly of the stack configuration.

[0109] Figure 2D illustrates an isometric view of a structural compact assembly 208 that comprises the plurality of stack assemblies 206. In one embodiment herein, the plurality of stack assemblies 206 are arranged in the square configuration. The plurality of stack assemblies 206 is securely interconnected through the holding brackets 104. Specifically, the holding brackets 104 serve as connectors, allowing the plurality of stack assemblies 206 to align precisely and form the structural compact assembly 208.

[0110] Figure 3 illustrates a schematic view of a modular stack assembly 300 with one holding bracket on each side of the panel. In one embodiment herein, the modular stack assembly 300 comprises a first compact panel 302 and a second compact panel 304, which are facing each other. The modular stack assembly 300 with the multiple holding brackets has the constellation of the holding brackets labeled A, A1, B, and B1, with shaded portions representing the holding brackets of the second compact panel 304. The second compact panel 304 is initially stacked onto the first compact panel 302 to form the modular stack assembly 300.

[0111] Asa second alternative to form a modular stack assembly, the second compact panel 304 undergoes a 180-degree rotation, as indicated by a curved arrow. This rotation reorients the interface regions. Once rotated, the second compact panel 304 is realigned and stacked onto the first compact panel 302, resulting in the constellation of the holding brackets labeled a, a1, b, and b1. If panels with perforated patterns are used, this rotation converts the modular stack assembly 300 from an airtight stack to an air-permeable stack.

[0112] Figure 4A illustrates an isometric view of two identical panels 102 with perforated patterns 105 and with one holding bracket 104 on each side for preparing an airtight stack panel 406. In one embodiment herein, each identical panel 102 is fabricated with the plurality of uniformly or non-uniformly distributed holes 103 across its surface. These holes 103 collectively form a pierced panel, which provides a lightweight structure without compromising its mechanical strength. The two identical panels 102 with perforated patterns 105 are engineered to align precisely when stacked, ensuring a closefitting configuration. This alignment is achieved through strategically placed edges or grooves that facilitate proper positioning.

[0113] The perforations in panel 102 are designed not only to allow ventilation or fluid flow but also to contribute to the overall modularity of the stackable system. The identical panel 102 comprises a plurality of uniformly distributed holes 103 across its surface, forming a first pierced panel 400, while another identical panel 102 incorporates a plurality of non-uniformly distributed holes 103, thereby constituting a second pierced panel 404. When these panels are stacked in alignment, their specific hole distribution patterns complement each other, ensuring the formation of an airtight stack 406 by minimizing airflow pathways and enhancing the sealing effect. This airtight property is achieved by the use of sealing mechanisms, such as gaskets or adhesives, or by leveraging the tight interlocking of the panel edges.

[0114] This configuration is particularly useful in applications requiring secure containment or protection against environmental factors, such as moisture or dust. The integration of perforations also makes the identical panels 102 adaptable for various functionalities, such as enhancing airflow, supporting filtration processes, or providing additional stability when used in modular assemblies. The airtight stack 406 thus represents a robust and versatile structure, suitable for diverse industrial and commercial applications.

[0115] Figure 4B illustrates an isometric view of the two identical panels 102 with perforated patterns and with one holding bracket 104 for preparing an air-permeable stack 408. In one embodiment herein, a pair of the first pierced panel 400 are aligned and attached to one another to create the air-permeable stack 408. This configuration allows for controlled airflow while maintaining structural integrity. The alignment ensures that the plurality of holes 103 on the surface of one first pierced panel 400 remains unobstructed, enabling the flow of air through the air-permeable stack 408. This design not only supports ventilation but also maintains the structural integrity required for various applications, making the air-permeable stack 408 suitable for scenarios where airflow is critical.

[0116] Figure 5A illustrates a schematic view of a compact structural module 500. In one embodiment herein, the compact structural module 500 comprises a primary compact stack assembly 502 with at least one holding bracket 104 each side.

[0117] Figure 5B illustrates a schematic view of a primary compact stack assembly 506. In one embodiment herein, the primary compact assembly 506 comprises the first compact structural module 502 and a second compact structural module 504. In particular, the first compact structural module 502 is positioned on top of the second compact structural module 504 is rotated 90 degrees right before being stacked onto the first compact structural module 502, thereby forming the primary compact stack assembly 506. The shaded portions represent the repositioned interface regions, illustrating the realignment of the second compact structural module 504 to ensure a precise fit.

[0118] Figure 5C illustrates a schematic view of a secondary compact stack assembly 508. In one embodiment herein, the second compact structural module 504 is rotated 90 degrees left before being stacked onto the first compact structural module 502, thereby forming the secondary compact stack assembly 508. The shaded portions represent the repositioned interface regions, illustrating the realignment of the second compact structural module 504 to ensure a precise fit. This rotational adjustment enhances the modular compatibility of the primary compact stack assembly 506, optimizing structural cohesion and alignment for subsequent stacking configurations.

[0119] Figure 6A illustrates an exploded view of the multi-functional compact modular structure 600 using a plurality of primary compact stack assemblies 506. In one embodiment herein, the plurality of primary compact stack assemblies 506 are connected to each other in multiple orientations. The interlocking edges feature notches and protrusions, enabling secure attachment between adjacent primary compact stack assemblies 506. In one embodiment herein, the primary compact stack assembly 506 serves as the foundational base, ensuring structural stability for the multi-functional compact modular structure 600.

[0120] Upon establishing the base, at least four primary compact stack assemblies 506 are strategically positioned and aligned to construct a chamber-like framework. Subsequently, an additional primary compact stack assembly 506 is integrated into the chamber structure, thereby completing the formation of the multi-functional compact modular structure 600. The modular design of the structure 600 facilitates seamless expansion, reconfiguration, and adaptability, making it suitable for a wide range of applications.

[0121] Figure 6B illustrates an exploded view of the multi-functional compact modular structure 600 using the plurality of secondary compact stack assemblies 508. In one embodiment herein, a plurality of secondary compact stack assemblies 508 are interconnected in multiple orientations, utilizing interlocking edges with precisely designed notches and protrusions to ensure a secure and stable attachment between adjacent assemblies. This interlocking mechanism enhances structural integrity and modular adaptability.

[0122] In anoter embodiment, the secondary compact stack assembly 508 serves as the foundational base, providing stability and support for the multi-functional compact modular structure 600. Once the base is established, at least four secondary compact stack assemblies 508 are strategically arranged and aligned to construct a chamber-like framework. To complete the formation of the multi-functional compact modular structure 600, an additional secondary compact stack assembly 508 is integrated into the chamber structure. The multi-functional compact modular structure 600 allows for effortless expansion, reconfiguration, and customization, enabling it to be adapted for diverse applications while maintaining structural coherence and functional efficiency.

[0123] Figure 7A illustrates an isometric view of panel 102 with a lattice pattern with at least two holding brackets 104 on each side. In one embodiment herein, the multi-functional modular structure 100 includes the plurality of panels 102 and the one or more holding brackets 104. Each panel 102 is designed with at least four edges, and at least two holding brackets 104 are strategically affixed to these edges. The one or more holding brackets 104 are cylindrical protrusions or connectors, which are placed at varying distances along the edges of each panel 102 to facilitate precise alignment and secure connection with the corresponding holding brackets 104 on adjacent panels.

[0124] Each edge of the panel 102 may include a single holding bracket 104, or multiple holding brackets 104, such as three, four, or more, depending on the structural and functional requirements of the multi-functional modular structure 100. The holding brackets 104 are arranged at varying intervals along the edges of each of the panels 102 to enable precise alignment and robust connection with corresponding holding brackets 104 on adjacent panels. Each panel 102 incorporates a lattice structure on its surface, forming a square grooved panel 700, which further enhances its modularity and strength. The holding brackets 104 allow the panels 102 to interlock seamlessly, forming a continuous, larger surface when connected.

[0125] Figure 7B illustrates an isometric view of panel 102 with a perforated pattern with the at least two holding brackets 104 on each side. In one embodiment herein, each panel 102 is designed with at least four edges, and the holding brackets 104 are strategically affixed to these edges. The holding brackets 104 having cylindrical protrusions or connectors, which are placed at varying distances along the edges of each panel 102 to facilitate precise alignment and secure connection with the corresponding holding brackets 104 on adjacent panels. Each panel 102 is designed with a plurality of holes 103 on its surface, forming a first stacked plate 702. The plurality of holes 103 is designed to facilitate airflow and ventilation, further enhancing the panel’s functionality. The holding brackets 104 allow the plurality of panels 102 to interlock seamlessly, forming a continuous, larger surface when connected.

[0126] Figure 7C illustrates an isometric view of two identical panels with perforated patterns and with the at least two holding brackets 104 on each side for preparing an airtight stack panel 706. In one embodiment herein, each identical panel 102 is fabricated with the plurality of uniformly or non-uniformly distributed holes 103 across its surface. These holes 103 collectively form a pierced panel 704, which provides a lightweight structure without compromising its mechanical strength. The two identical panels 102 with perforated patterns are engineered to align precisely when stacked, ensuring a closefitting configuration. This alignment is achieved through strategically placed edges or grooves that facilitate proper positioning.

[0127] The perforations in panel 102 are designed not only to allow ventilation or fluid flow but also to contribute to the overall modularity of the stackable system. When the two identical panels 102 with the perforated pattern are stacked, their design ensures the formation of the airtight stack 706. This airtight property is achieved by the use of sealing mechanisms, such as gaskets or adhesives, or by leveraging the tight interlocking of the panel edges.

[0128] This configuration is particularly useful in applications requiring secure containment or protection against environmental factors, such as moisture or dust. The integration of perforations also makes the identical panels 102 adaptable for various functionalities, such as enhancing airflow, supporting filtration processes, or providing additional stability when used in modular assemblies. The airtight stack 706 thus represents a robust and versatile structure, suitable for diverse industrial and commercial applications.

[0129] Figure 7D illustrates an isometric view of the two identical panels with perforated patterns with the at least two holding brackets 104 on each side for preparing an air-permeable stack 708. In one embodiment herein, a pair of first stacked plates 702 are aligned and attached to one another to create the air-permeable stack 708. This configuration allows for controlled airflow while maintaining structural integrity. The alignment ensures that the plurality of holes 103 on the surface of one stacked plate 702 remains unobstructed, enabling the flow of air through the air-permeable stack 708. This design not only supports ventilation but also maintains the structural integrity required for various applications, making the air-permeable stack 708 suitable for scenarios where airflow is critical.

[0130] Figure 7E illustrates an isometric view of a modular plate 712 for storage purposes. In one example embodiment herein, a square grooved panel 700, the first stacked plate 702, the pierced panel 704 and plain solid panel 710 are stacked together to form a modular plate 712. This modular plate 712 is engineered for efficient storage and transportation, maximizing space-saving capabilities.

[0131] Figure 7F illustrates an isometric view of a smart identification panel 714 having the perforated pattern with a logo 718, and QR code 716. In one example embodiment herein, the smart identification panel 714 comprises the logo 718 and the QR code 716. In particular, the logo 718 represents the brand or manufacturer of the smart identification panel 714, thereby ensuring easy recognition and promoting brand identity. The logo 718 serves as a visual guarantee of authenticity and quality. The QR code 716 allows the user to access detailed information about the smart identification panel 714, such as assembly instructions, usage guidelines, warranty details, or product specifications. The QR code 716 can also provide links to customer support, videos, or other resources. Both the logo 718 and QR code 716 help authenticate the smart identification panel 714, reducing the risk of counterfeiting or imitations.

[0132] Figure 7G illustrates an isometric view of a dense plate 720. In one embodiment herein, at least one of the plurality of panels 102 is designed with at least four edges, and one or more holding brackets 104 are strategically affixed to these edges. The one or more holding brackets 104 are cylindrical connectors strategically positioned at varying intervals along the edges of each panel 102 to form the dense plate 720. These holding brackets 104 are designed to ensure precise alignment and secure connections with the corresponding holding brackets 104 on adjacent panels. The position of the holding brackets of the dense plate is the same as those of the stable structure 202, allowing them to use interchangeably. The holding brackets have cavities 105 for accommodating an elevated member 904 of the column structure 906 (as depicted in FIG. 9D).

[0133] In one embodiment herein, the dense panel 720 is equipped with a pair of holding brackets 104 that are positioned along each edge to enable seamless connection with adjacent dense panels 720 using the tube device 115 or pipe 900 (as depicted in FIG. 9D). These holding brackets 104 are designed as cylindrical connectors or protrusions strategically spaced along the edges of the dense panel 720. This arrangement ensures precise alignment and a secure interlocking mechanism with corresponding holding brackets 104 on neighboring panels, enhancing the structural stability and modularity of the assembled system.

[0134] Figure 7H illustrates an isometric view of a structural assembly 722 that comprises at least two dense panels 720. In one embodiment herein, at least two dense panels 720 are stacked vertically to form the structural assembly 722. The design of the holding brackets 104 is such that they does not interfere with each other during the stacking process, allowing for seamless alignment and secure connection between the panels. This configuration ensures stability and precision in the overall structure, enhancing the ease of assembly and robustness of the assembly process.

[0135] Figure 71 illustrates a schematic view of a stack assembly 724 with two holding brackets 104 on each side of the panel. In one embodiment herein, the modular stack assembly 724 comprises a first panel 726 and a second panel 728, positioned to face each other. The stack assembly 724 incorporates multiple holding brackets 104, arranged in a specific constellation labeled A, A1, B, and B1, with shaded portions denoting the holding brackets 104 of the second compact panel 728. Initially, the second panel 728 is stacked onto the first panel 726 to form the stack assembly 724 in a standard configuration.

[0136] Alternatively, to achieve a different stacking arrangement, the second panel 728 undergoes a 180-degree rotation, as indicated by a curved arrow, effectively reorienting the interface regions. Due to the presence of perforated patterns in the panels, this rotation alters the alignment of perforations, transitioning the modular stack assembly 724 from an airtight configuration to an air-permeable structure, thereby modifying its functional characteristics.

[0137] Figure 8 illustrates front views of tube devices 115 with various sizes for inserting into one or more holding brackets, which are integrated into at least two of the plurality of panels 102. In one embodiment herein, the modular container system comprises a tube device 115 that is configured to be inserted through the plurality of holding brackets 104 integrated into at least two of the plurality of panels 102. These tube devices 115 act as connecting elements, securing the plurality of panels 102 in a fixed arrangement during the formation of one or more multi-functional modular structures 100.

[0138] The insertion of the tube device 115 through the plurality of holding brackets 104 ensures that the plurality of panels 102 remain securely aligned, thereby preventing unintended movement or displacement. This interlocking mechanism not only facilitates the assembly process but also enhances the structural integrity and stability of the modular container system. By maintaining a rigid and fixed arrangement of the panels 102, the system is capable of withstanding external forces, making it suitable for a variety of loadbearing or protective applications.

[0139] The tube device 115 can also serve as a versatile replacement for the locking device 114 in the formation of multi-functional modular structures 100. The tube device 115 is designed to be manufactured in varying lengths, providing adaptability to meet diverse design and functional requirements. The ability to produce tube devices 115 of different lengths enables the modular system to cater to specific structural configurations, allowing for customized container dimensions and layouts.

[0140] Each tube device 115 is designed with connection points at both ends, allowing them to be joined using clips. In particular, these clips utilize a secure and flexible interlocking mechanism, similar to those employed in tent poles or kayak paddles, thereby ensuring ease of assembly and disassembly. The clip mechanism not only provides a firm connection between pair of tube devices 115 but also allows for slight adjustments, accommodating potential misalignments during the assembly process.

[0141] By integrating tube device 115 as a key structural component, the modular container system achieves a balance between flexibility and durability. The system can be quickly assembled or disassembled without specialized tools, making it suitable for applications requiring portability, such as temporary shelters, transportable storage units, or modular workstations. Furthermore, the use of tube device 115 reduces the overall weight of the structure while maintaining its load-bearing capacity, enhancing its usability across various industries.

[0142] In one example embodiment herein, the multi-functional modular structure 100 is customizable based on user requirements. The multi-functional modular structure 100 is repairable by allowing the individual replacement of the plurality of panels 102, thereby ensuring extended life-span and ease of maintenance. The multi-functional modular structure 100 includes additional components such as a handle, a shoulder strap, a pair of shoulder straps and an actuation unit. In particular, the handle is utilized for preparing a hand suitcase. The shoulder strap is utilized for preparing a shoulder bag. The pair of shoulder straps is utilized for preparing a backpack. The actuation unit is utilized for preparing a trolley case.

[0143] Figure 9A illustrates a front view of a pipe 900 and a clip 902. In one embodiment herein, the pipe 900 includes a slot configured to facilitate insertion through the plurality of holding brackets 104 of the at least two panels 102, ensuring secure positioning. In another embodiment herein, the clip 902 features an elevated member 904 protruded at one end, enabling enhanced engagement and locking functionality.

[0144] Figure 9B illustrates an isometric view of the clip 902 while bending. Figure 9C illustrates an isometric view of the clip 902 while insertion into the tube 900. Figure 9D illustrates an isometric view of the clip 902 upon insertion into the pipe 900 to achieve a column structure. In one embodiment herein, the clip 902 is flexed and inserted into the pipe 900, ensuring that its elevated member 904 securely engages with the slot of the pipe 900, thereby forming the column structure 906. As the elevated member 904 of the clip 902 extends through the slot, it functions as a restricting member, effectively preventing unintended displacement and enhancing structural stability.

[0145] In one embodiment herein, the column structure 906 serves as a substitute for the locking device 114 and the tube device 115. The elevated member 904 of the column structure 906 is designed for insertion into the cavity of the holding bracket 104, ensuring a secure fit. The column structure 906 is configured to pass through the plurality of holding brackets 104 associated with at least two panels from the plurality of panels 102, thereby interlocking them in a fixed position. This structural integration facilitates the formation of one or more multi-functional modular structures, thereby enhancing stability and adaptability in various assembly configurations.

[0146] Figure 10A illustrates an isometric view of two different panels for preparing a modular plate 1000. In one example embodiment herein, the plain solid panel 710 is joined with the square grooved panel 700 to form the modular plate 1000. This assembly is achieved by aligning the pair of holding brackets 104 located at the edges of both the plain solid panel 710 and the square grooved panel 700. The pair of holding brackets 104 are strategically positioned to ensure precise alignment and secure interconnection, allowing the plates to be firmly affixed without any gaps or misalignments.

[0147] The design of the holding brackets 104 ensures that the modular plate 1000 achieves a stable and seamless configuration suitable for various applications, such as storage, transportation, or structural support. The alignment mechanism not only enhances the ease of assembly but also improves the overall structural integrity of the modular plate 1000.

[0148] Figure 10B illustrates an isometric view of an edge of a structural assembly that comprises a plurality of modular panels or plates 1000 without a plurality of tube devices. In one embodiment herein, a pair of modular plates (1000A, 1000B) are pivotally interconnected, enabling articulated movement and facilitating the formation of the edge of the structural assembly. Figure 10C illustrates an isometric view of the plurality of tube devices (115A, 115B, 115C, 115D, 115E) arranged for the structural assembly. Figure 10D illustrates an isometric view of the edge of the structural assembly upon inserting the plurality of tube devices (115 A, 115B, 115C, 115D, 115E).

[0149] In one embodiment herein, the plurality oftubedevices(115A, 115B, 115C, 115D, 115E) are systematically inserted into the holding brackets 104 of the pair of modular plates (1000A, 1000B), ensuring a secure and stable connection. The insertion mechanism allows for precise alignment of the plurality of tube devices (115 A, 115B, 115C, 115D, 115E) within the holding brackets 104, facilitating the seamless integration of pair of modular plates (1000A, 1000B) to construct the edge of the structural assembly.

[0150] Furthermore, the interconnection of the holding brackets 104 with the holding brackets 104 enhances the overall structural integrity, providing strength and stability to the assembly. This modular configuration allows for easy assembly, disassembly, and reconfiguration, making the structure adaptable for various applications. Additionally, the strategic placement of the holding brackets 104 ensures uniform load distribution, minimizing stress concentration points and improving the durability of the structural assembly.

[0151] Figure 11A illustrates an isometric view of a connecting member 106. Figure 11B illustrates a front view of the connecting member 106. Figure 1 IC illustrates a side view of the connecting member 106. Figure 11D illustrates a top view of the connecting member 106. In one embodiment herein, the plurality of connecting members 106 having one or more protrusions 108 and is configured to be removably connected with each other by vertically positioning in alternating positions. The plurality of connecting members 106 is configured to interconnect, forming a locking device 114.

[0152] Each connecting member 106 comprises the one or more protrusions 108 on its inner wall as depicted in Figure 1 ID, facilitating precise alignment and secure attachment. The protrusions 108 are positioned at a front portion of the connecting member 106, ensuring robust connections. The side portion of the connecting member 106 includes a cut surface, enhancing modular compatibility. The rare portion of the connecting member 106 mirrors the front portion and also incorporates one or more protrusions 108, ensuring uniformity and ease of assembly.

[0153] In one embodiment herein, the locking member 110 is designed with a plurality of slots 112, which are configured to securely hold the plurality of connecting members 106 that form the locking device 114. This arrangement creates the locking device 114, which can be inserted into the pair of holding brackets 104 of at least one of the plurality of panels 102. The plurality of slots 112 is specifically designed to accommodate the protrusions 108 of each connecting member 106 in the locking device 114, ensuring a stable and precise fit. Additionally, the locking member 110 passes through the one or more protrusions 108 in alternate connecting members 106 within the locking device 114, further enhancing the structural integrity and modularity of the assembly.

[0154] In one embodiment herein, the plurality of connecting members 106 are interconnected to construct the locking device 114. Each connecting member 106 is designed with four distinct sides: a first side 1112, a second side 1114, a third side 1116, and a fourth side 1118 as depicted in Figure 11D. The connecting members 106 are joined at specific orientations, such that the first side 1112 of one connecting member 106 aligns and connects with the second side of an adjacent connecting member 106.

[0155] The first side 1112 and fourth side 1118 of each connecting member 106 are structurally identical, as are the second side 1114 and third side 1116. The second side 1114 and third side 1116 are equipped with one or more protrusions 1118, allowing the insertion of the locking member 110, which enhances the rigidity and stability of the locking device 114. In one embodiment herein, each locking device 114 is reinforced by at least one locking member 110. Additionally, the first side 1112 and the fourth side 1118 feature external protrusions 108, which are precisely designed to fit into the plurality of slots 112 on the locking member 110, ensuring a secure and seamless assembly.

[0156] Figure 12A illustrates a front view of the locking device 114 secured by the plurality of connecting members 106 using the locking member 110. Figure 12B illustrates an exploded view of the locking device 114 secured by the plurality of connecting members 106 using the locking member 110. In one embodiment herein, the plurality of connecting members 106 with protrusions 108 is designed to interconnect vertically in alternating positions, forming a locking device 114. These protrusions 108, located on the front and rear portions of the connecting members 106, thereby ensuring precise alignment and secure attachment. The side portions feature a cut surface of the each connecting member 106 to enhance modular compatibility.

[0157] In one embodiment herein, the one or more locking members 110, with slots 112, securely holds the connecting members 106 by engaging their protrusions 108, thereby creating the locking device 114. The locking member 110 passes through alternating protrusions in the connecting members 106, reinforcing stability. This locking device 110 integrates into the holding brackets 104 of the plurality of panels 102, thereby offering a modular, adaptable, and secure assembly.

[0158] Figure 13A illustrates an isometric view of the two different panels for preparing a modular plate 1000. In one example embodiment herein, the plain solid panel 710 is joined with the square grooved panel 700 to form the modular plate 1000. This assembly is achieved by aligning the pair of holding brackets 104 located at the edges of both the plain solid panel 710 and the square grooved panel 700. The pair of holding brackets 104 are strategically positioned to ensure precise alignment and secure interconnection, allowing the plates to be firmly affixed without any gaps or misalignments.

[0159] The design of the holding brackets 104 ensures that the modular plate 1000 achieves a stable and seamless configuration suitable for various applications, such as storage, transportation, or structural support. The alignment mechanism not only enhances the ease of assembly but also improves the overall structural integrity of the modular plate 1000.

[0160] Figure 13B illustrates an isometric view of an edge of a structural assembly that comprises a plurality of modular panels or plates 1000 without a plurality of locking members 114. In one embodiment herein, a pair of modular plates (1000A, 1000B) are pivotally interconnected, enabling articulated movement and facilitating the formation of the edge of the structural assembly. Figure 13C illustrates an isometric view of the plurality of locking members (114A, 114B, 114C) arranged for the structural assembly. Figure 13D illustrates an isometric view of the edge of the structural assembly upon inserting the plurality of locking members (114A, 114B, 114C).

[0161] In one embodiment herein, the plurality of locking members (114A, 114B, 114C) are systematically inserted into the holding brackets 104 of the pair of modular plates (1000A, 1000B), ensuring a secure and stable connection. The insertion mechanism allows for precise alignment of the plurality of locking members (114A, 114B, 114C) within the holding brackets 104, facilitating the seamless integration of pair of modular plates (1000A, 1000B) to construct the edge of the structural assembly.

[0162] Furthermore, the interconnection of the holding brackets 104 with the holding brackets 104 enhances the overall structural integrity, providing strength and stability to the assembly. This modular configuration allows for easy assembly, disassembly, and reconfiguration, making the structure adaptable for various applications. Additionally, the strategic placement of the holding brackets 104 ensures uniform load distribution, minimizing stress concentration points and improving the durability of the structural assembly.

[0163] In some embodiments, the term “module” as used herein refers to any known or later developed hardware, software, firmware, artificial intelligence, fuzzy logic, or combination of hardware and software that is capable of performing the functionality associated with that element.

[0164] The invention has been described with reference to a preferred embodiment. The description is intended to enable a skilled person to make the invention, not to limit the scope of the invention. The scope of the invention is determined by the claims.

Claims

aims1. A modular container system, comprising:a plurality of panels,wherein the plurality of panels is configured to removably connect to each other in various configurations to form one or more multi-functional modular structures;a plurality of holding brackets affixed to a periphery of all sides of each of the plurality of panels, wherein the plurality of holding brackets is configured to facilitate precise alignment and secure connection with corresponding holding brackets of at least one adjacent panel during formation of the one or more multi-functional modular structures;a plurality of tube devices,wherein each of the tube device is adapted to insert through the plurality of holding brackets of at least two panels of the plurality of panels to secure each other in a position during formation of the one or more multi-functional modular structures,where the holding brackets are arranged at varying positions on each of the four edges of each panel such that the holding brackets on any edge are complementary to the holding brackets on any of at least two edges, allowing them to be connected or stacked with another panel in at least two different orientations.

2. The modular container system according to claim 1, wherein each of the plurality of panels is configured with one or more patterns on a surface to improve structural integrity, and wherein the one or more patterns of the plurality of panels include a lattice pattern, a perforated pattern, a honeycomb pattern, a square pattern, a solid pattern, and a square grooved pattern.

3. The modular container system according to claim 2, wherein two or more panels having lattice pattern are stackable to form a solid panel.

4. The modular container system according to claim 2 or claim 3, wherein two or more panels having a lattice pattern are stackable to form a perforated panel.

5. A modular container system according to any preceding claim, wherein two or more panels having solid faces are stackable to form a double-walled panel defining an empty space between the panel walls.24 10 256. A modular container system according to any preceding claim, wherein at least two of the plurality of panels having an identical pattern are stacked together using the plurality of holding brackets to form a single integrated panel, with two opposing sides of the single integrated panel featuring same arrangement of the plurality of holding brackets, while the remaining two opposing sides feature a complementary arrangement of the plurality of holding brackets.

7. A modular container system according to any preceding claim wherein the plurality of tube devices comprises:a plurality of connecting members having one or more protrusions, wherein the plurality of connecting members is configured to be removably connected with each other by vertically positioning in alternating positions; andone or more locking members configured to securely hold the plurality of connecting members to form as a tube device,wherein the one or more locking members having a plurality of slots, which is configured to engage with the one or more protrusions of the plurality of connecting members, thereby creating a secure connection and forming the tube device.

8. The modular container system according to claim 7, wherein the plurality of connecting members comprises the one or more protrusions receiving the plurality of slots of the one or more locking members.

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