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:What are the different types of steel canopy systems used in building structures?: There are several different types of steel canopy systems used in building structures, including cantilevered canopies, truss-supported canopies, tensioned membrane canopies, and suspended canopies. Each type has its own unique design and structural characteristics, allowing architects and engineers to choose the most suitable system for their specific project requirements.

Q:How are steel structures designed to resist snow loads?: Steel structures are designed to resist snow loads by considering factors such as the weight of the snow, the shape and pitch of the roof, and the local snowfall accumulation. Designers use specific snow load calculations and engineering codes to determine the appropriate steel members, connections, and bracing required to safely support the anticipated snow loads. This includes considering the snow load distribution on the structure, ensuring adequate strength and stiffness, and incorporating measures to prevent snow accumulation and sliding. Additionally, steel structures are typically designed with a higher factor of safety to account for uncertainties in the actual snow loads.

Q:What is the role of fireproofing in steel structures?: The role of fireproofing in steel structures is to protect the steel from high temperatures during a fire. Fireproofing materials are applied to the steel surface to insulate it and delay the spread of heat, ensuring the structural integrity of the building and giving occupants more time to evacuate safely.

Q:What are the common design considerations for steel educational or institutional buildings?: Some common design considerations for steel educational or institutional buildings include structural integrity, durability, flexibility in layout, efficient use of space, energy efficiency, ease of maintenance, and compliance with building codes and regulations. Additionally, factors such as acoustics, natural lighting, aesthetics, and cost-effectiveness are also taken into account during the design process.

Q:What are the advantages of using steel in the construction of shopping centers?: There are several advantages of using steel in the construction of shopping centers. Firstly, steel is a highly durable material that can withstand heavy loads and extreme weather conditions, ensuring the longevity and structural integrity of the shopping center. Secondly, steel is a flexible material that allows for innovative and creative architectural designs, enabling developers to create visually appealing shopping centers. Additionally, steel is a cost-effective option as it can be prefabricated, reducing construction time and costs. Moreover, steel is a sustainable choice as it is recyclable, reducing the environmental impact of construction. Lastly, steel offers excellent fire resistance, ensuring the safety of occupants in case of a fire.

Q:What is the cost comparison between steel structures and other construction materials?: The cost comparison between steel structures and other construction materials depends on various factors such as the type of material, the size and complexity of the project, the location, and the specific requirements. In general, steel structures tend to be more cost-effective compared to other construction materials such as concrete or wood. This is primarily due to the speed of construction, durability, and ease of maintenance associated with steel. One of the main advantages of steel is its strength-to-weight ratio, which allows for lighter and more efficient structural designs. This translates into reduced material costs as less steel is required to achieve the same level of structural integrity compared to other materials. Additionally, steel structures can be fabricated off-site and then quickly assembled on-site, reducing labor costs and construction time. Moreover, steel is highly durable and resistant to pests, moisture, and fire, which eliminates the need for costly repairs and replacements in the long run. The longevity of steel structures also contributes to their cost-effectiveness, as they require minimal maintenance and have a longer lifespan compared to other materials. However, it is important to note that the cost comparison can vary depending on specific project requirements. For instance, if a project necessitates large spans or unique architectural designs, steel structures may require additional engineering and fabrication costs. Similarly, the availability and costs of construction materials can vary based on the location of the project, which can impact the overall cost comparison. Ultimately, it is advisable to consult with a qualified engineer or construction professional to assess the specific requirements and constraints of a project in order to determine an accurate cost comparison between steel structures and other construction materials.

Q:What are the considerations for designing steel structures in areas with high wind speed?: When designing steel structures in areas with high wind speeds, there are several considerations that need to be taken into account. Firstly, the structural engineer must assess the wind load that the structure will be subjected to and ensure that the steel members and connections are designed to withstand these forces. This may involve using larger or stronger sections of steel, as well as implementing additional bracing or reinforcement. Additionally, the design should consider the aerodynamics of the structure to minimize wind resistance and reduce the risk of wind-induced vibrations or oscillations. This can be achieved by shaping the structure to allow for smooth airflow around it and reducing any potential for turbulence. Furthermore, the foundation system must be designed to resist the uplift forces caused by high winds. This may require deeper or larger foundations, as well as proper anchoring techniques to ensure stability. Another crucial consideration is the potential for windborne debris. Structures in high wind areas should be designed to withstand impacts from flying objects, such as trees, branches, or loose construction materials. Lastly, compliance with local building codes and regulations specific to high wind areas is essential. These codes often provide guidelines and requirements for designing structures to withstand wind loads and ensure the safety of occupants. Overall, the considerations for designing steel structures in areas with high wind speeds involve assessing wind loads, optimizing aerodynamics, designing robust foundations, accounting for windborne debris, and adhering to relevant building codes and regulations.

Q:How are steel columns designed?: Steel columns are designed using a combination of engineering principles and industry standards. The design process involves several steps and considerations to ensure the columns can withstand the loads they are expected to carry. First, the design process starts with determining the load requirements. This includes considering factors such as the weight of the structure, live loads (such as people or equipment), wind loads, seismic loads, and any other applicable loads. These loads are typically specified by building codes and regulations. Once the load requirements are determined, the structural engineer calculates the maximum expected loads on the columns. This involves analyzing the structure's overall stability and distributing the loads among the columns. Different calculation methods, such as the axial load and bending moment method or the finite element analysis, may be used depending on the complexity of the structure. The next step is to select the appropriate column size and shape. This is done by considering factors such as the material properties of the steel, the column's length, and the load requirements. The engineer will typically refer to steel design manuals and tables to determine the suitable column size and shape for the given loads. After selecting the column size, the engineer will then determine the column's strength and stability. This involves calculating the column's buckling resistance, also known as its slenderness ratio. The slenderness ratio is a measure of how susceptible the column is to buckling under compressive loads. The engineer ensures that the column's slenderness ratio is within acceptable limits to prevent buckling. Additionally, the engineer will consider other factors such as connection details, fire resistance, and corrosion protection. Connection details involve designing the connections between the column and other structural members to ensure they can transfer the loads effectively. Fire resistance measures may be incorporated to ensure the steel columns can withstand high temperatures in case of a fire. Corrosion protection methods, such as coatings or galvanizing, may also be used to prevent rust and deterioration of the steel columns over time. Overall, the design of steel columns involves a thorough analysis of the loads, selection of appropriate sizes and shapes, consideration of strength and stability, and incorporation of connection details and other protective measures. This ensures that the steel columns are designed to safely and efficiently support the loads they are subjected to in a given structure.

Q:How are steel structures used in the construction of museums and cultural centers?: Steel structures are commonly used in the construction of museums and cultural centers due to their strength, versatility, and aesthetic appeal. Steel allows for the creation of large, open spaces without the need for excessive support columns, providing flexibility in the layout and design of these buildings. Additionally, steel structures can be easily modified or expanded in the future, accommodating changing exhibition requirements. The use of steel also ensures the safety and longevity of these structures, as it is resistant to fire, corrosion, and seismic forces. Overall, steel plays a crucial role in creating iconic and functional spaces for the preservation and celebration of art, history, and culture.

Q:What are the factors that affect the constructability of a steel structure?: The factors that affect the constructability of a steel structure include the design complexity, availability of skilled labor, site conditions, access and logistics, material availability and compatibility, project schedule, and the coordination and communication among the design team, contractors, and stakeholders.

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