Export Steel Sheet Pile/U Steel Sheet Pile/ 400*125*13mm

Export Steel Sheet Pile/U Steel Sheet Pile/ 400*125*13mm System 1

Export Steel Sheet Pile/U Steel Sheet Pile/ 400*125*13mm System 2

Export Steel Sheet Pile/U Steel Sheet Pile/ 40012513mm

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Loading Port:: China Main Port

Payment Terms:: TT or LC

Min Order Qty:: 200 Piece/Pieces m.t.

Supply Capability:: 10000 m.t./month

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Quick Details Steel Sheet Pile

Place of Origin: China (Mainland)
Model Number:SD400/125-13
Material: Steel
Product name: Steel Sheet Pile
Steel sheet pile type: U-type
Steel sheet pile material: SY295
Steel sheet pile width: 400mm
Steel sheet pile height: 125mm
Steel sheet pile thickness: 13mm
Steel sheet pile length: 6m or 12m
Steel sheet pile loading: container , 20 ft or 40GP
Steel sheet pile used: temporary earth-retaining,temporary cofferdam works
Steel sheet pile weight: 60kgs / m

Packaging & Delivery

Packaging Details:	packaging :by bulk . loading : container 20ft or 40GP
Delivery Detail:	stock ( more type has stock )

Specifications

Steel Sheet Pile 400*125*13mm
U Steel Sheet Pile
temporary earth-retaining/temporary cofferdam works/permanent structures

Export U Steel Sheet Pile 400*125*13mm

Product Description

Steel Sheet Pile Usage

emporary earth-retaining, temporary cofferdam works and permanent structures

Steel Sheet Pile Type : SD 400/125-13

Type	Size				Per piece			Per Meter of pile wall
	Width	Height	Thickness	weight	section area	section moment	section modulus	section area	section moment	section modulus	weight
	mm	mm	mm	kgs /m	cm²	cm⁴	cm3	cm²/m	cm4/m	Cm³/m	kg/m²
SD400/85-8	400	85	8	35.5	45.21	598	88	113	4500	529	88.80
SD400/100-10.5	400	100	10.5	48	61.18	1240	152	153	8740	874	120.10
SD400/125-13	400	125	13	60	76.42	2220	223	191	16800	1340	149.90
SD400/150-13.1	400	150	13.1	58.4	74.4	2790	250	186	22800	1520	146.00
SD400/170-15.5	400	170	15.5	76.1	96.99	4670	362	242.5	38600	2270	190.40

Export Steel Sheet Pile/U Steel Sheet Pile/ 400*125*13mm

Q: How are steel educational buildings constructed?: Steel educational buildings are constructed using a combination of prefabricated steel components and on-site assembly. The process typically involves designing the building's layout and dimensions, fabricating the steel components in a factory, transporting them to the construction site, and finally assembling them using bolts and welding techniques. This method ensures a quick and efficient construction process, allowing for flexibility in design, durability, and cost-effectiveness.

Q: What are the advantages of using steel structures in the mining industry?: One of the main advantages of using steel structures in the mining industry is their durability. Steel is a strong and robust material that can withstand harsh mining conditions, including extreme temperatures, corrosive environments, and heavy loads. Additionally, steel structures are highly resistant to fire and can provide a safe working environment for miners. Steel also offers flexibility in design, allowing for easy modifications and expansions as mining operations evolve. Moreover, steel is a sustainable and environmentally friendly choice as it is recyclable and reduces the need for new construction materials.

Q: How do steel structures provide resistance against blast and impact loads?: Steel structures provide resistance against blast and impact loads primarily due to their inherent strength and ductility. The unique properties of steel, such as high tensile strength and elasticity, make it an ideal material for withstanding extreme forces. When a blast or impact occurs, the steel structure absorbs the energy generated by the explosion or collision. This energy absorption capability is crucial in preventing the structure from collapsing or suffering catastrophic damage. Steel is able to distribute the load over a larger area, which reduces the intensity of the impact on any single point. This property is especially important when dealing with high-pressure waves or shockwaves caused by explosions. Moreover, steel is highly resistant to shattering or fragmentation. This means that even when subjected to intense forces, steel structures tend to deform rather than break into smaller pieces. This deformation ability helps in dissipating the energy and reducing the impact on the structure. In addition, steel structures can be designed to have flexibility and redundancy. By incorporating features like bracing, damping systems, or energy-absorbing materials, the structure can further enhance its resistance to blast and impact loads. These design considerations allow the structure to withstand the sudden and dynamic forces generated by blasts or impacts without compromising its overall integrity. Furthermore, steel structures can be constructed with blast-resistant materials, such as reinforced concrete or steel plates, which provide additional protection against blasts and impacts. These materials can be strategically placed in vulnerable areas to create a protective barrier that absorbs and redirects the forces. Overall, the combination of steel's high strength, ductility, energy absorption capacity, and flexibility in design make it an excellent choice for providing resistance against blast and impact loads. The ability of steel structures to withstand extreme forces ensures the safety and stability of buildings, bridges, and other infrastructure in the face of unexpected events.

Q: What is the importance of steel quality in structural design?: The significance of steel quality in structural design cannot be emphasized enough. Steel is extensively utilized in construction because of its exceptional strength, durability, and versatility. However, ensuring the structural integrity and safety of buildings and other structures heavily relies on the quality of the steel used. One key reason why steel quality is crucial in structural design is its capacity to withstand various loads and forces. Different structures experience different types of loads, such as dead loads, live loads, wind loads, seismic loads, and temperature fluctuations. High-quality steel with specific properties, like high yield strength and ductility, can effectively resist these loads without deforming or failing, ensuring the stability and longevity of the structure. Another critical aspect of steel quality is its resistance to corrosion. Steel structures are frequently exposed to harsh environmental conditions, such as moisture, chemicals, and extreme temperatures, which can cause corrosion. Corrosion weakens the steel, jeopardizing its structural integrity and potentially resulting in catastrophic failures. By using high-quality steel with proper corrosion-resistant coatings or alloys, the risk of corrosion-related issues can be significantly reduced. The consistency and reliability of the steel's mechanical properties are also vital in structural design. High-quality steel manufactured with strict quality control measures ensures predictable and consistent mechanical properties, including yield strength, tensile strength, and elongation. These properties are crucial in determining the structural design parameters, such as the size and configuration of members, connections, and overall stability. Inaccurate or inconsistent properties can lead to overdesign, underdesign, or even structural failure. Furthermore, steel quality plays a significant role in achieving cost-effectiveness in structural design. By using high-quality steel, designers can optimize the structural system, reducing material quantities and associated costs. Additionally, the use of high-quality steel allows for more efficient fabrication and construction processes, resulting in time and cost savings. Lastly, the importance of steel quality is reinforced by the necessity to comply with industry standards and codes. Structural design codes, such as the American Institute of Steel Construction (AISC) standards, specify minimum requirements for steel quality to ensure the safety of structures. Adhering to these standards ensures that the steel used in structural design meets the necessary criteria for strength, durability, and performance. In conclusion, steel quality is extremely important in structural design due to its significant impact on the strength, durability, and safety of structures. By using high-quality steel, designers can create structurally sound and cost-effective solutions that comply with industry standards and ensure the long-term stability of buildings and other structures.

Q: What are the key considerations in the design of steel bridge structures?: There are several key considerations in the design of steel bridge structures that engineers must take into account to ensure the safety, durability, and efficiency of the bridge. Firstly, the load capacity is a critical factor. Engineers must carefully analyze the anticipated loads that the bridge will be subjected to, including the weight of vehicles, pedestrians, and any potential environmental factors like wind or earthquakes. This analysis helps determine the appropriate size and strength of the steel members, including beams, columns, and connections, to safely support the anticipated loads. Secondly, the overall structural integrity is a key consideration. Engineers need to ensure that the bridge structure can withstand the forces and stresses it will experience during its design life. This includes factors such as the bridge's span length, the type of traffic it will accommodate, and any potential deformations or vibrations that may occur. By considering these factors, engineers can design a structure that is stable, rigid, and resilient. Another important consideration is the choice of materials and fabrication techniques. Steel is commonly used in bridge construction due to its high strength, durability, and versatility. However, engineers must carefully select the appropriate grade of steel and consider factors such as corrosion protection, welding techniques, and fabrication methods to ensure the bridge's long-term performance and maintenance requirements. Furthermore, the environmental impact is an increasingly important consideration in bridge design. Engineers must strive to minimize the ecological footprint of the bridge by considering factors such as the use of sustainable materials, energy-efficient construction methods, and the potential impact on local ecosystems and communities. Lastly, cost-effectiveness and constructability are key considerations. Engineers need to balance the design requirements with the available budget and time frame for construction. By considering factors such as construction methods, modularization, and the use of prefabricated components, engineers can optimize the design for efficient and cost-effective construction. In conclusion, the key considerations in the design of steel bridge structures include load capacity, structural integrity, material selection, environmental impact, and cost-effectiveness. By carefully considering these factors, engineers can design bridges that are safe, durable, sustainable, and efficient.

Q: How are steel structures designed for amusement parks and entertainment venues?: Steel structures for amusement parks and entertainment venues are designed with a combination of engineering principles and creative considerations. Designers take into account factors such as the intended use of the structure, its load-bearing capacity, safety requirements, and overall aesthetics. They carefully analyze the forces acting on the structure, such as wind, gravity, and dynamic loads, to ensure its stability and durability. Through a meticulous design process, engineers create innovative and exciting steel structures that provide a safe and thrilling experience for visitors while also complementing the overall theme and ambiance of the venue.

Q: How are steel structures used in theme parks and water parks?: Steel structures are widely used in theme parks and water parks due to their strength, durability, and versatility. They are utilized for various purposes, including the construction of roller coasters, water slides, observation towers, and other attractions. Steel provides the necessary structural support and stability required to withstand the dynamic forces and loads experienced in these amusement park environments. Additionally, steel's ability to be fabricated into complex shapes allows for creative and visually stunning designs, enhancing the overall experience for park visitors.

Q: Can steel structures be designed with rooftop gardens?: Yes, steel structures can be designed with rooftop gardens. Steel is a versatile and strong material that can support the weight of rooftop gardens. With proper engineering and design considerations, such as additional load-bearing capacity and waterproofing, steel structures can accommodate rooftop gardens, providing an aesthetically pleasing and sustainable environment.

Q: What are the environmental impacts of steel structure production?: The production of steel structures has various environmental consequences. To begin with, the extraction of iron ore, the main source of steel, often necessitates the clearance of extensive land areas, resulting in the destruction of habitats and the loss of biodiversity. The process of transforming iron ore into steel necessitates the utilization of energy-intensive furnaces, which contribute to the release of greenhouse gases and air pollutants. These emissions comprise carbon dioxide, sulfur dioxide, nitrogen oxides, and particulate matter, which contribute to climate change and can have adverse effects on both human health and the environment. Furthermore, the production of steel structures necessitates substantial quantities of water for cooling and cleansing purposes. This can result in both water scarcity and pollution, as the water employed in the process frequently becomes tainted with chemicals and heavy metals. Moreover, the transportation of steel structures from the production site to the construction site involves the use of vehicles powered by fossil fuels, leading to carbon emissions and air pollution. Nevertheless, it is crucial to acknowledge that steel is an extremely durable and recyclable material. By recycling steel, the environmental impacts of its production can be significantly diminished. The recycling of steel necessitates less energy and resources compared to its production from scratch, thereby reducing greenhouse gas emissions and preserving natural resources. To conclude, the production of steel structures has multiple environmental consequences, encompassing habitat destruction, greenhouse gas emissions, air and water pollution, and energy consumption. However, through the implementation of sustainable practices such as recycling and enhancing energy efficiency in the production process, it is possible to mitigate the environmental impacts of steel structure production.

Q: What are the environmental benefits of using steel structures?: There are several environmental benefits of using steel structures. Firstly, steel is 100% recyclable, which means that it can be reprocessed into new products without losing its strength and durability. This reduces the need for new steel production, which in turn conserves natural resources and reduces energy consumption. Additionally, steel structures have a longer lifespan compared to other materials, reducing the need for frequent replacements and minimizing waste generation. Steel is also resistant to pests, mold, and fire, reducing the use of chemical treatments and promoting healthier indoor environments. Overall, steel structures contribute to sustainable construction practices and help mitigate the environmental impact of the built environment.

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