Pre-Engineered Steel Building Q235

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Name

Item

Details

Main steel frame

Steel beam steel post

Steel Q235,processing

Welding

Automatic arc welding

Derusting

Blasting derusting

Painting

Primer,coating,fluorocarbon paint(grey)

Intensive screw

Grade 10.9

Purlin screw

Archor bolt

M20,Steel Q235

Brace

Tie bar

Φ89*3mm,Steel Q235,process and painted

Purlin support

Steel Q235,process and painted

Fixed tray

Steel Q235,process and painted

Ground tray

Steel Q235,process and painted

Cross support

Φ12mm,Steel Q235,process and painted

Intensive bolt

Φ24mm,Steel Q235,process and painted Q235

Roof

EPS Sandwich panel

75mm corrugated sandwich panels.EPSdensity:14kgs/CBM.steel sheet thickness:0.4mm.

Flashing, capping

0.5mm color steel sheet

Roof

fastener

Glue,self drilling nails

Hot galvanzed purlin

C160*60*20*2.5mm

Edge cover

0.5mm color steel sheet

Wall

75mm sandwich wall panel

75mm corrugated sandwich panels.EPSdensity:14kgs/CBM.steel sheet thickness:0.4mm.

Ground channel

0.5mm color steel sheet

Hot galvanzed purlin

C160*60*20*2.5mm

Corner cover

0.5mm color steel sheet 0.5mm

Gate

3000*3500roller door

Window

PVC sliding window 3000*1000(W*H)

Door,window edge cover

0.5mm color steel sheet

fastener

Glue,self drilling nail

Drainge System

Steel Gutter

0.5mm color steel sheet

PVC drainpipe

More Details

1. Wall and roof materials : EPS/Rockwool/PU/PIR Sandwich Panel/Steel sheet

2. Color: normally, white gray, blue and red;or custom

3. Moudle: Single slope or double slop;

4. Window material: Plastic steel or aluminum, swing or slidding

5. Door: sliding dooor made of Sandwich panel /roller door like Manual rolling door or automatic rolling door

Erection : Main steel structure--pre made galvanized steel columns /beams /purlins

Buidling Features:

1. Durable and relocatable
2. Flexible design
3. Fast installation
4.Competive price/low cost

1. Durablestructure: light steel structure is the frame of our building, which meets the design requirements of steel structure.

2. Easy to assemble and disassemble: Standardized pre made components make it easy to install and dismantle. It is especially suitable for emergency projects.

3. Environment friendly and economical: Reasonalbe design makes it reusable. The reusable character makes it environment friendly and economical.

4. Low cost: First class material, reasonable price, once and for all investment, low requirements for base and short completion time make it cost efficient.

5. Relocatable: It can be relocated up to 10 times. It has 30 to 50 years durabili

Q: How are steel structures designed to resist lateral loads?: Steel structures are designed to resist lateral loads through several mechanisms. Firstly, the geometry and configuration of the structure are carefully planned to provide stability and minimize the effects of lateral forces. This can include using bracing systems, such as diagonal or cross-bracing, to ensure stiffness and prevent excessive deflection. Additionally, the selection of appropriate materials and connections is crucial to enhancing the strength and rigidity of the structure. Steel's high strength-to-weight ratio makes it an ideal choice for withstanding lateral loads, while proper connection details, such as welding or bolted connections, ensure the integrity and stability of the structure. Furthermore, advanced analysis techniques, such as finite element analysis, are employed to accurately predict the behavior of the structure under lateral loads, allowing for the optimization of design and reinforcement strategies. Overall, the combination of careful geometric planning, material selection, connection design, and advanced analysis methods enables steel structures to effectively resist lateral loads.

Q: Can steel structures be recycled?: Yes, steel structures can be recycled. Steel is a highly recyclable material, and it retains its strength and properties even after multiple recycling processes. Recycling steel structures not only helps in conserving natural resources but also reduces energy consumption and greenhouse gas emissions associated with steel production.

Q: How are steel structures designed and constructed to meet LEED certification requirements?: There are several strategies and practices that can be utilized to design and construct steel structures in order to meet the requirements for LEED certification. Here are some key elements to consider: 1. Material Selection: Steel is an incredibly sustainable material as it is highly durable, recyclable, and generates minimal waste during manufacturing. Incorporating recycled or locally sourced steel can earn LEED points in the Materials and Resources category. 2. Energy Efficiency: Steel structures can be equipped with energy-efficient features, such as high-performance insulation, efficient HVAC systems, and advanced lighting controls. These additions help to reduce energy consumption and can earn points in the Energy and Atmosphere category. 3. Indoor Environmental Quality: Steel structures can enhance the quality of the indoor environment by incorporating proper ventilation, utilizing natural light, and utilizing low-emitting materials. These elements improve air quality and occupant comfort, resulting in points in the Indoor Environmental Quality category. 4. Water Efficiency: Steel structures can be designed to include water-efficient fixtures, rainwater collection systems, and efficient irrigation systems. These strategies help conserve water and can earn points in the Water Efficiency category. 5. Sustainable Site Design: Steel structures can be designed in a way that minimizes their impact on the environment. Strategies such as stormwater management, heat island reduction, and preservation of open spaces contribute to points in the Sustainable Sites category. 6. Construction Waste Management: Proper management of construction waste is vital to achieving LEED certification. Steel structures inherently generate less waste during construction, and implementing strategies like waste sorting and recycling can earn points in the Materials and Resources category. 7. Innovation: Implementing innovative design and construction techniques, such as modular construction or advanced technologies, can further enhance the sustainability of steel structures. These innovations can earn points in the Innovation category. It's important to note that achieving LEED certification requires a comprehensive approach to design and construction. Engaging experienced professionals with LEED expertise, such as architects, engineers, and contractors, is essential to ensure the effective implementation of all necessary strategies and practices to achieve the desired certification level.

Q: What is the role of steel in historical and heritage buildings?: Steel plays a significant role in historical and heritage buildings, primarily in providing structural support and stability. It is commonly used in the construction of frames, beams, columns, and other load-bearing elements, ensuring the longevity and safety of these structures. Additionally, steel's versatility allows for the creation of intricate designs and architectural features, contributing to the unique aesthetic value of these buildings.

Q: How are steel structures designed for aviation hangars?: Steel structures for aviation hangars are designed following a comprehensive process that involves considering factors such as the hangar's size, required clear span, local weather conditions, and aircraft types to be housed. The design typically incorporates a combination of steel columns, beams, and trusses to provide adequate strength and stability, while also considering the need for large openings and high ceilings to accommodate aircraft movements. Additionally, factors like fire resistance, corrosion protection, and sustainability are taken into account to ensure the longevity and safety of the structure.

Q: How are steel structures designed for religious buildings such as churches and mosques?: Steel structures for religious buildings such as churches and mosques are typically designed with careful consideration to the architectural and functional requirements of the structure. The design process involves a thorough analysis of the building's size, shape, and intended use, as well as the local climate and seismic conditions. Structural engineers use advanced computer-aided design (CAD) software to create efficient and safe steel frameworks that can support the unique architectural features and accommodate large open spaces, high ceilings, and intricate details often found in religious buildings. The steel design also ensures durability, flexibility, and resistance to environmental elements, allowing these structures to withstand the test of time while providing a safe and inspiring space for worship and community gatherings.

Q: How are steel structures used in the construction of historical buildings?: Historical buildings often utilize steel structures due to their strength, durability, and versatility. These structures offer various advantages that are ideal for preserving and restoring historical architecture. Primarily, steel structures surpass traditional materials like wood or stone in terms of strength. This enables architects and engineers to create larger, more open interior spaces without excessive supporting columns or walls. By implementing steel beams and frames, the building's structural integrity is ensured, making it more resistant to natural disasters such as earthquakes or high winds. Moreover, steel is highly durable and resistant to decay, rot, and insect infestations. This is particularly significant in historical buildings where preserving the original structure is essential. Steel structures can reinforce weakened or deteriorating sections of the building, guaranteeing its longevity for future generations to admire. The versatility of steel is another key advantage in constructing historical buildings. It can be easily shaped and molded into various architectural designs, allowing for the replication of intricate details and ornamental features found in historical architecture. This flexibility facilitates the preservation of the building's original aesthetic while incorporating modern technology and materials. Additionally, steel structures can be fabricated off-site, reducing on-site construction time and minimizing disruption to the surrounding area. This is especially advantageous when working on historical buildings as it helps preserve the building's historical context and minimizes the impact on neighboring structures and the overall site. In conclusion, steel structures play a significant role in constructing historical buildings as they provide strength, durability, and versatility. They ensure the building's structural integrity, preserve its original architectural features, and allow for the incorporation of modern technologies. Furthermore, the use of steel in historical building construction minimizes on-site disruption and contributes to preserving the building's historical context.

Q: What are the considerations for designing steel structures for blast resistance?: When designing steel structures for blast resistance, several key considerations need to be taken into account. Firstly, the structural design should include provisions for the dynamic loads generated by the blast, such as the blast pressure, impulse, and duration. This involves determining the blast design criteria and considering the potential threat scenarios. Secondly, the choice of materials and their properties play a crucial role. Steel, due to its high strength and ductility, is commonly used for blast-resistant structures. However, the selection of the specific steel grade and its resistance to brittle fracture and spalling should be carefully assessed. Thirdly, the structural configuration needs to be optimized to enhance blast resistance. This involves incorporating blast-resistant features such as robust connections, reinforced walls, and blast-resistant windows. The structural system should also be designed to minimize the potential for progressive collapse. Additionally, blast-resistant design requires considering the location and proximity of the structure to potential explosion sources. The standoff distance, surrounding terrain, and potential mitigating factors should be evaluated to determine the appropriate level of blast resistance required. Finally, it is crucial to adhere to relevant design codes, guidelines, and standards specific to blast-resistant design. These standards provide valuable information on blast loading, material specifications, and structural design requirements to ensure the safety and performance of the steel structure in the event of a blast.

Q: How are steel structures used in mining and mineral processing plants?: Steel structures are widely used in mining and mineral processing plants due to their strength, durability, and versatility. They provide support for heavy machinery and equipment, including crushers, conveyors, and processing units. Steel structures also house storage areas for minerals and facilitate efficient transportation within the plant. Additionally, steel is resistant to corrosion and can withstand harsh environmental conditions, making it suitable for the demanding requirements of mining and mineral processing operations.

Q: How are steel structures designed for different occupancy types?: Steel structures are designed for different occupancy types by considering various factors such as load requirements, fire resistance, and safety regulations. The design process involves analyzing the intended use of the structure, determining the expected loads and stresses it will experience, and selecting appropriate steel materials and structural elements. Additionally, specific design considerations are made for different occupancy types, such as hospitals, offices, or residential buildings, to ensure the structure can accommodate the unique needs and safety requirements of each.

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