A type of bamboo biomass container that can be used for long lengths

Abstract

This invention discloses a bamboo biomass container suitable for long-length applications, belonging to the field of cargo transportation equipment. The container is constructed from bamboo biomass components, which are connected using various types of connectors to form a large spatial system. A coating is applied to the outer surface of the container, giving it advantages such as lightweight, high strength, corrosion resistance, and environmental friendliness. Common bamboo biomass materials include bamboo laminated timber, bamboo reconstituted timber, bamboo woven plywood, bamboo wound composite, bamboo-plastic composite, bamboo shavings composite, and bamboo chip profiles. This container can also be converted into a building, demonstrating promising application prospects.

Description

Technical Field

[0001] This invention relates to a bamboo biomass container suitable for long-length transport, belonging to the field of cargo transportation equipment technology, and is particularly applicable to various cargo transportation scenarios such as sea transport, land transport, and warehousing. The invention aims to utilize the excellent properties of bamboo biomass materials to develop a container that can be used for ultra-long volumes, providing a high-performance, environmentally friendly, and economical container solution for cargo transportation. Background Technology

[0002] In modern freight transport systems, containers are crucial transport equipment, and their performance and material selection are of paramount importance. Traditional steel containers have been widely used for a long time, but with the development of the industry, their inherent defects have gradually become apparent.

[0003] In terms of weight, steel has a density of approximately 7.85 g / cm³. 3 This results in extremely high tare weight for steel containers. For example, a typical 20-foot standard steel container can weigh around 2.3 tons. In actual cargo transportation, this extra weight not only occupies the limited load capacity of the transport vehicle, directly reducing the effective cargo volume, but also significantly increases transportation costs. In road transport, vehicles need to consume more fuel to support the weight of the container. For instance, a 10-ton truck carrying a traditional steel container might have its actual cargo volume reduced by 1-2 tons due to the container's excessive weight, while fuel consumption would increase by 10%-15%, significantly raising transportation costs.

[0004] The poor corrosion resistance of steel is also a major problem. In humid, saline marine environments or industrially polluted areas, steel is highly susceptible to oxidation and rust. Generally, steel containers will show obvious signs of rust after 3-5 years of use, requiring maintenance such as rust removal and painting. Each maintenance requires significant investment of manpower and resources, including purchasing rust removal equipment and protective coatings, as well as paying workers' wages. Statistics show that each maintenance cost accounts for approximately 5%-10% of the container's cost. Furthermore, frequent maintenance can lead to container downtime, affecting its efficiency and reducing the continuity and timeliness of transportation.

[0005] In terms of resources and environmental protection, steel production is a high-energy-consuming and high-polluting process. Producing one ton of steel requires approximately 1.5-2 tons of iron ore and 0.5-0.6 tons of coal, while emitting 1.6 tons of carbon dioxide and generating large amounts of waste slag, exhaust gases, and other pollutants. As global attention to environmental protection and sustainable development continues to increase, the disadvantages of traditional steel containers in terms of resource consumption and environmental protection are becoming increasingly prominent, failing to meet the requirements of modern society for a green and low-carbon economy.

[0006] While there have been attempts to improve shipping containers using lightweight materials such as aluminum alloys, aluminum alloys are expensive, costing 20%-30% more than steel. Furthermore, aluminum alloys have limitations in strength and impact resistance, making them unsuitable for the demands of containers in complex operating environments. For example, aluminum alloy containers are more prone to deformation and damage during loading and unloading collisions. Meanwhile, research on the application of natural materials such as bamboo in the container industry is still in its early stages, lacking mature and systematic technical solutions, and no products or technical standards yet have been developed for large-scale application.

[0007] Bamboo biomass materials are composite materials made by processing raw bamboo into various bamboo unit forms (bamboo veneer, bamboo curtains, bamboo mats, bamboo strips, bamboo slivers, bamboo fibers, bamboo chips, etc.), combining them with adhesives, and using physical and chemical methods. Common bamboo biomass materials include bamboo laminated timber, bamboo reconstituted timber, bamboo woven laminated timber, bamboo wound composite timber, bamboo-plastic composite timber, bamboo shavings composite timber, and bamboo chip profiles. Bamboo biomass materials have excellent mechanical properties and show promising application prospects in structural systems. Summary of the Invention

[0008] To address the aforementioned issues, this invention provides a bamboo biomass container suitable for long lengths. It fully leverages the advantages of bamboo biomass materials, such as lightweight, high strength, corrosion resistance, and environmental friendliness, effectively solving the problems of traditional steel containers, including heavy weight, susceptibility to corrosion, and high resource consumption. Through innovative design and manufacturing processes, it reduces transportation costs, extends the container's service life, and promotes the container industry towards a green and sustainable development, providing a more efficient, reliable, and environmentally friendly solution for cargo transportation.

[0009] The technical solution adopted in this invention is as follows:

[0010] A bamboo biomass material container suitable for long lengths is characterized in that the bamboo biomass material container is composed of a bamboo biomass material frame structure, side double doors (11-1), a top automatic swing door (11-2), a bamboo biomass material bottom plate (12), a bamboo biomass material top plate (13), bamboo biomass material longitudinal side plates (14), and bamboo biomass material transverse side plates (15); the bamboo biomass material frame structure is composed of corner posts (1), central posts (2), bottom side longitudinal short beams (3), top side longitudinal long beams (4), transverse short beams (5), bottom middle longitudinal short beams (6), diagonal braces (7), and fiberglass... The structure consists of a steel sleeve bolt connector (8), a right-angle fiberglass steel filler plate bolt connector (9), and a 45° angle fiberglass steel filler plate bolt connector (10); the top longitudinal beam (4) is connected by the left top longitudinal beam (4-1) and the right top longitudinal beam (4-2) through a fiberglass steel sleeve bolt connector (8-3) without corner fittings; the corner post (1) and the top transverse short beam (5-2) of the connecting door are connected to the top longitudinal beam (4) through diagonal bracing (7), and the corner post (1-2) of the connecting plate and the top transverse short beam (5-3) of the connecting plate are connected through diagonal bracing (7); the grounding center post (2-3) is connected to the bottom longitudinal short beam on both sides ( 3) The lower ends of the grounding column (2-3) and the bottom corner-fitted fiberglass sleeve bolt connector (8-2) are on the same horizontal plane, and together they transmit the load to the ground; the two ends of the bottom longitudinal short beam (6) are connected to the transverse short beam (5) through right-angle fiberglass filler plate bolt connector (9); the angle between all the diagonal braces (7) and the beam or column is 45°, and the two ends are connected through 45° angle fiberglass filler plate bolt connector (10); the bamboo biomass material bottom plate (12) is located inside the bamboo biomass material frame structure, the bamboo biomass material top plate (13), and the bamboo biomass material longitudinal side plate (14) The bamboo biomass material transverse side panels (15) are located on the outside of the bamboo biomass material frame structure. These panels are all bidirectional bamboo biomass material fiberboard. The side double doors (11-1) are located between the door corner posts (1-1), and the top automatic swing door (11-2) is located at the top center of the bamboo biomass material frame structure. The surface of the bamboo biomass material panels is treated with PVDF / FSR composite microcapsule enhanced superhydrophobic multifunctional coating technology. Polyvinylidene fluoride (PVDF) and YBS-S-860 type fluorosilicone resin (FSR) are selected as the matrix resins, with mass fractions of 45% and 55%, respectively. Covestro's N3390 curing agent is used to promote resin curing and film formation. Carbon nanofibers (CNF) are added to enhance the mechanical strength of the coating, and two types of microcapsules, namely EDTA-Zn / PU@SiO2 microcapsules and FSO / PU@SiO2 microcapsules, are introduced. Silicone sealant is used to fill the container seams to prevent moisture, dust, etc. from entering.

[0011] The bamboo biomass frame structure, if it is a 40-foot standard shipping container, can be composed of 4 corner columns (1), 19 central columns (2), 10 bottom side longitudinal short beams (3), 4 top side longitudinal long beams (4), 21 transverse short beams (5), 10 bottom middle longitudinal short beams (6), 24 diagonal braces (7) and connectors; the number of components can be increased or decreased according to the actual load-bearing and application conditions.

[0012] The side-opening doors (11-1) and the top-mounted automatic swing door (11-2) can be made of metal, or one or more of the following: bamboo engineered wood, bamboo biomass materials, bamboo woven plywood, bamboo-plastic composite, bamboo shavings composite, bamboo chip profiles, wood, and straw. The top-mounted automatic swing door (11-2) can also be omitted depending on the actual situation and replaced with board material.

[0013] The glass fiber in the connector can be replaced with one or more combinations of carbon fiber, aramid fiber, and basalt fiber, or it can be made of steel alone.

[0014] The bamboo biomass material can also be replaced with one or more combinations of bamboo laminated timber, bamboo woven plywood, bamboo-plastic composite, bamboo shavings composite, bamboo chip profiles, wood, bamboo-wood composite, and straw, depending on the function and requirements.

[0015] The number and arrangement of the components of the bamboo biomass frame structure can be increased or decreased according to weight allowances and usage conditions.

[0016] The PVDF / FSR composite microcapsule-enhanced superhydrophobic multifunctional coating technology possesses superhydrophobic properties, as well as multiple functions such as wear resistance, self-healing, corrosion prevention, scale inhibition, and UV resistance; the silicone sealant fills the gaps at each joint of the container with a depth of not less than 10mm.

[0017] After assembling the bamboo biomass container frame, stainless steel kits and nails are used to fix the side-opening doors (11-1), the top automatic swing door (11-2), the bamboo biomass base plate (12), the bamboo biomass top plate (13), the bamboo biomass longitudinal side plate (14), and the bamboo biomass transverse side plate (15) to the bamboo biomass frame, and sealant is applied. The side-opening doors (11-1), the top automatic swing door (11-2), the bamboo biomass base plate (12), the bamboo biomass top plate (13), the bamboo biomass longitudinal side plate (14), and the bamboo biomass transverse side plate (15) are all made of biaxial bamboo biomass fiberboard. Each layer is at least 5mm thick, and there are at least four layers of biaxial bamboo biomass fiberboard. During the pressing process, a certain pressure and temperature are applied to ensure a tight bond between the fiberboards, improving the overall strength and sealing of the board. When installing bamboo biomass doors, use stainless steel metal fittings to ensure smooth and flexible opening and closing, while also guaranteeing a tight seal between the door and the frame. When installing the bamboo biomass base, top, and side panels, use stainless steel nails for fixing, with a nail spacing of 100-150mm to ensure the panels are firmly secured. During installation, carefully inspect each panel to ensure it is free of cracks and deformation. When applying sealant, ensure it is applied evenly and continuously, with a filling depth of at least 10mm to prevent moisture and dust from entering the container.

[0018] A high-performance protective coating is constructed on the surface of bamboo biomass materials using a spraying process. This coating uses polyvinylidene fluoride (PVDF) and YBS-S-860 type fluorosilicone resin (FSR) as the matrix, and is modified by adding carbon nanofibers (CNF), EDTA-Zn / PU@SiO2 microcapsules, and FSO / PU@SiO2 microcapsules to form a composite coating with unique properties. The coating performance is optimized by precisely controlling the proportions of each component. PVDF and FSR are mixed at a mass ratio of 45% and 55%, respectively, along with Covestro N3390 curing agent, to ensure the basic film-forming properties of the coating. The appropriate addition of CNF enhances the mechanical strength of the coating; EDTA-Zn in the EDTA-Zn / PU@SiO2 microcapsules chelates scale ions, improving scale inhibition performance; and the FSO / PU@SiO2 microcapsules release the lubricant FSO under pressure, enhancing wear resistance. This coating possesses excellent comprehensive properties: superior superhydrophobicity, strong mechanical durability, good chemical stability, self-healing ability, and good anti-icing and de-icing performance, effectively meeting the needs of containers in cold environments.

[0019] At all joints of the container, such as the connections of uprights, beams, longitudinal beams, and diagonal braces (7), silicone sealant should be used for sealing. The sealant should have good elasticity, aging resistance, and waterproof performance, and the filling depth should not be less than 10mm to ensure that the gaps are completely sealed and to prevent moisture, dust, etc. from entering the container and affecting the performance of bamboo biomass materials.

[0020] The beneficial effects of this invention are:

[0021] Lightweight and efficient: The density of bamboo biomass materials is only about 1 / 5 to 1 / 4 that of steel, giving 40-foot bamboo biomass frame containers a significant weight advantage. Traditional 40-foot steel containers typically weigh around 4-5 tons, while this bamboo biomass frame container can reduce its weight to around 3 tons. This weight reduction directly translates to a significant increase in effective cargo capacity; compared to traditional steel containers, the effective cargo capacity of a single container can be increased by more than 1.5 tons. During transportation, fuel consumption is closely related to the load on the vehicle or ship. Because bamboo biomass containers are lighter, fuel consumption during transportation can be reduced by approximately 10%-15%.

[0022] Reliable Strength: The specially processed bamboo biomass material exhibits excellent tensile and compressive strength. Through a scientifically designed frame structure and reliable connection methods, this 40-foot bamboo biomass container fully meets the strength requirements of international container standards. In actual use, whether it's cargo stacking, vibrations during transportation, or the stress during hoisting operations, the container can stably bear the load, effectively ensuring the safety of goods during transport.

[0023] Superior Corrosion Resistance: Bamboo biomass materials inherently possess a certain degree of corrosion resistance. Combined with a carefully designed surface protective coating and sealing treatment, its corrosion resistance in harsh environments far surpasses that of steel containers. In the humid, high-salt-spray environment of ocean shipping, a typical 40-foot steel container requires extensive anti-corrosion maintenance every 3-5 years, including rust removal and repainting, each maintenance costing a high price. However, this 40-foot bamboo biomass frame container, thanks to its excellent corrosion resistance, can be used continuously for 8-10 years without extensive anti-corrosion treatment, reducing maintenance costs by more than 50%. This not only reduces the manpower, material resources, and financial investment required for maintenance but also significantly improves the container's utilization efficiency and reduces downtime caused by maintenance.

[0024] Environmentally Friendly and Sustainable: Bamboo grows extremely quickly, reaching 10-20 meters in just 3-4 months, making it a high-quality resource for sustainable use. Using bamboo biomass materials to construct 40-foot shipping containers can significantly reduce dependence on unsustainable resources such as steel. Steel production not only consumes large amounts of natural resources like iron ore and coal but also generates significant amounts of greenhouse gases such as carbon dioxide. In contrast, bamboo absorbs a large amount of carbon dioxide during its growth, acting as a carbon sink, and its processing has relatively low carbon emissions. Therefore, promoting the use of bamboo biomass materials in 40-foot containers helps drive the container industry towards a low-carbon and environmentally friendly direction, aligning with global sustainable development trends and holding significant importance for environmental protection.

[0025] The specific embodiments of the present invention will now be described in further detail with reference to the accompanying drawings. Attached Figure Description

[0026] Figure 1 This is the bamboo biomass material frame structure of Embodiment 1 of the present invention;

[0027] Figure 2 This is the bamboo biomass material frame structure of Embodiment 2 of the present invention;

[0028] Figure 3 This is the bamboo biomass material frame structure of Embodiment 3 of the present invention;

[0029] Figure 4 This is the bamboo biomass material frame structure of Embodiment 4 of the present invention;

[0030] Figure 5 This is the bamboo biomass material frame structure of Embodiment 5 of the present invention;

[0031] Figure 6 This is the bamboo biomass material frame structure of Embodiment 6 of the present invention;

[0032] Figure 7 This is the bamboo biomass material frame structure of Embodiment 7 of the present invention;

[0033] Figure 8 These are schematic diagrams of the door and panel arrangement in embodiments 1-7 of the present invention;

[0034] Attached diagram labels: 1 is a corner post, 1-1 is a door-connecting corner post, 1-2 is a slab-connecting corner post; 2 is a center post, 2-1 is an ungrounded longitudinal side center post, 2-2 is an ungrounded transverse side center post, 2-3 is a grounded center post; 3 is a bottom side longitudinal short beam, 3-1 is a side span bottom side longitudinal short beam, 3-2 is a middle span bottom side longitudinal short beam; 4 is a top side longitudinal long beam, 4-1 is a left top side longitudinal long beam, 4-2 is a right top side longitudinal long beam; 5 is a transverse short beam, 5-1 is a door-connecting bottom transverse short beam, 5-2 is a door-connecting top transverse short beam, 5-3 is a slab-connecting top transverse short beam, 5-4 is a middle transverse short beam; 6 is a bottom middle longitudinal short beam; 7 is a diagonal brace; 8 is a fiberglass sleeve. Sleeve bolt connectors: 8-1 is a fiberglass sleeve bolt connector with corner fittings at the top; 8-2 is a fiberglass sleeve bolt connector with corner fittings at the bottom; 8-3 is a fiberglass sleeve bolt connector without corner fittings at the top; 8-4 is a fiberglass sleeve bolt connector with corner fittings at the bottom; 9 is a right-angle fiberglass filler plate bolt connector; 10 is a 45° angle fiberglass filler plate bolt connector; 11 is a door: 11-1 is a side-opening double door; 11-2 is a top-mounted automatic swing door; 12 is a bamboo biomass material base plate; 13 is a bamboo biomass material top plate; 14 is a bamboo biomass material longitudinal side plate; 15 is a bamboo biomass material transverse side plate. Detailed Implementation

[0035] Example 1

[0036] A bamboo biomass material container suitable for long lengths is characterized in that the bamboo biomass material container is composed of a bamboo biomass material frame structure, side double doors (11-1), a top automatic swing door (11-2), a bamboo biomass material bottom plate (12), a bamboo biomass material top plate (13), bamboo biomass material longitudinal side plates (14), and bamboo biomass material transverse side plates (15); the bamboo biomass material frame structure is composed of corner posts (1), central posts (2), bottom side longitudinal short beams (3), top side longitudinal long beams (4), transverse short beams (5), bottom middle longitudinal short beams (6), diagonal braces (7), and fiberglass... The structure consists of a steel sleeve bolt connector (8), a right-angle fiberglass steel filler plate bolt connector (9), and a 45° angle fiberglass steel filler plate bolt connector (10); the top longitudinal beam (4) is connected by the left top longitudinal beam (4-1) and the right top longitudinal beam (4-2) through a fiberglass steel sleeve bolt connector (8-3) without corner fittings; the corner post (1) and the top transverse short beam (5-2) of the connecting door are connected to the top longitudinal beam (4) through diagonal bracing (7), and the corner post (1-2) of the connecting plate and the top transverse short beam (5-3) of the connecting plate are connected through diagonal bracing (7); the grounding center post (2-3) is connected to the bottom longitudinal short beam on both sides ( 3) The lower ends of the grounding column (2-3) and the bottom corner-fitted fiberglass sleeve bolt connector (8-2) are on the same horizontal plane, and together they transmit the load to the ground; the two ends of the bottom longitudinal short beam (6) are connected to the transverse short beam (5) through right-angle fiberglass filler plate bolt connector (9); the angle between all the diagonal braces (7) and the beam or column is 45°, and the two ends are connected through 45° angle fiberglass filler plate bolt connector (10); the bamboo biomass material bottom plate (12) is located inside the bamboo biomass material frame structure, the bamboo biomass material top plate (13), and the bamboo biomass material longitudinal side plate (14) The bamboo biomass material transverse side panels (15) are located on the outside of the bamboo biomass material frame structure. These panels are all bidirectional bamboo biomass material fiberboard. The side double doors (11-1) are located between the door corner posts (1-1), and the top automatic swing door (11-2) is located at the top center of the bamboo biomass material frame structure. The surface of the bamboo biomass material panels is treated with PVDF / FSR composite microcapsule enhanced superhydrophobic multifunctional coating technology. Polyvinylidene fluoride (PVDF) and YBS-S-860 type fluorosilicone resin (FSR) are selected as the matrix resins, with mass fractions of 45% and 55%, respectively. Covestro's N3390 curing agent is used to promote resin curing and film formation. Carbon nanofibers (CNF) are added to enhance the mechanical strength of the coating, and two types of microcapsules, namely EDTA-Zn / PU@SiO2 microcapsules and FSO / PU@SiO2 microcapsules, are introduced. Silicone sealant is used to fill the container seams to prevent moisture, dust, etc. from entering.

[0037] For a 40-foot standard ocean shipping container, it can be composed of 4 corner posts (1), 19 center posts (2), 10 bottom side longitudinal short beams (3), 4 top side longitudinal long beams (4), 21 transverse short beams (5), 10 bottom center longitudinal short beams (6), 24 diagonal braces (7) and connectors.

[0038] Example 2

[0039] The main difference between Example 2 and Example 1 is that neither side of the grounding column (2-3) is provided with diagonal bracing (7) connected to the bottom edge longitudinal short beam (3), and the lower end of the ungrounded longitudinal column (2-1) in the middle of the longitudinal edge is connected to the bottom edge longitudinal short beam (3) through a fiberglass sleeve bolt connector (8-4) without corner pieces in the middle of the bottom edge.

[0040] Example 3

[0041] The main difference between Example 3 and Implementation Case 1 is that the ungrounded longitudinal side column (2-1) and the grounded column (2-3) are connected by diagonal bracing (7) on one side and the bottom side longitudinal short beam (3).

[0042] Example 4

[0043] The main difference between Example 4 and Example 1 is that the lower side of the ungrounded longitudinal column (2-1) and the bottom longitudinal short beam (3) are connected by diagonal bracing (7), and the upper side of the grounded column (2-3) and the bottom longitudinal short beam (3) are connected by diagonal bracing (7).

[0044] Example 5

[0045] The main difference between Example 5 and Example 1 is that both sides of the ungrounded longitudinal side column (2-1) are provided with diagonal bracing (7) connected to the bottom side longitudinal short beam (3).

[0046] Example 6

[0047] The main difference between Example 6 and Example 1 is that diagonal bracing (7) is provided on both sides of the ungrounded longitudinal side column (2-1) connected to the bottom side longitudinal short beam (3) only by the fiberglass sleeve bolt connector (8-3) without corner pieces at the top.

[0048] Example 7

[0049] The main difference between Example 7 and Example 2 is that the lower end of the ungrounded longitudinal side column (2-1) in the middle of the longitudinal side is connected to the bottom longitudinal short beam (3) by a right-angle fiberglass filler plate bolt connector (9).

[0050] The above embodiments are merely specific manifestations of the present invention, and the scope of protection of the present invention is not limited thereto. Any equivalent transformations or improvements made based on the concept of the present invention without departing from the essence of the technical solution of the present invention should be covered within the scope of protection of the present invention.

Claims

1. A container made of bamboo biomass material for long length, characterized in that, The bamboo biomass container consists of a bamboo biomass frame structure, side doors (11-1), an automatic top swing door (11-2), a bamboo biomass bottom plate (12), a bamboo biomass top plate (13), bamboo biomass longitudinal side plates (14), and bamboo biomass transverse side plates (15); the bamboo biomass frame structure consists of corner posts (1), central posts (2), bottom side longitudinal short beams (3), top side longitudinal long beams (4), transverse short beams (5), bottom middle longitudinal short beams (6), diagonal braces (7), and glass. The system consists of fiberglass sleeve bolt connectors (8), right-angle fiberglass filler plate bolt connectors (9), and 45° angle fiberglass filler plate bolt connectors (10); the top longitudinal beam (4) is connected by the left top longitudinal beam (4-1) and the right top longitudinal beam (4-2) through fiberglass sleeve bolt connectors (8-3) without corner fittings; the corner post (1) and the top transverse short beam (5-2) of the connecting door are connected to the top longitudinal beam (4) through diagonal bracing (7), and the corner post (1-2) of the connecting plate and the top transverse short beam (5-3) of the connecting plate are connected by... Diagonal bracing (7) connection; both sides of the grounding column (2-3) are connected to the bottom edge longitudinal short beam (3) through diagonal bracing (7), the lower ends of the grounding column (2-3) and the bottom angled fiberglass sleeve bolt connector (8-2) are on the same horizontal plane; the two ends of the bottom longitudinal short beam (6) are connected to the transverse short beam (5) through right-angle fiberglass filler plate bolt connector (9); the angle between all diagonal bracing (7) and the beam or column is 45°, and the two ends are connected through 45° angled fiberglass filler plate bolt connector (10); bamboo biomass material base plate ( 12) The bamboo biomass material top plate (13), bamboo biomass material longitudinal side plate (14) and bamboo biomass material transverse side plate (15) are located on the outside of the bamboo biomass material frame structure. These plates are all bidirectional bamboo biomass material fiberboard. The side double doors (11-1) are located between the door corner posts (1-1), and the top automatic swing door (11-2) is located in the middle of the top of the bamboo biomass material frame structure. The container joints are filled with silicone sealant to prevent moisture and dust from entering.

2. The bamboo biomass material container according to claim 1, wherein, The bamboo biomass frame structure, if it is a 40-foot shipping container, can be composed of 4 corner posts (1), 19 central posts (2), 10 bottom side longitudinal short beams (3), 4 top side longitudinal long beams (4), 21 transverse short beams (5), 10 bottom middle longitudinal short beams (6), 24 diagonal braces (7) and connectors; the number and arrangement of components can be increased or decreased according to the actual load-bearing and application conditions; the automatic top swing door (11-2) can also be replaced by board material according to the actual situation.

3. The bamboo biomass material container according to claim 1, wherein, The bamboo biomass material can be one or more of the following: bamboo laminated timber, bamboo woven plywood, bamboo-plastic composite, bamboo shavings composite, bamboo chip profiles, wood, bamboo-wood composite, and straw; the glass fiber in the connector can be replaced with one or more combinations of carbon fiber, aramid fiber, and basalt fiber, or only steel can be used.

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