• Prefabricated Steel Structure Workshop Projects System 1
  • Prefabricated Steel Structure Workshop Projects System 2
Prefabricated Steel Structure Workshop Projects

Prefabricated Steel Structure Workshop Projects

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Loading Port:
Shanghai
Payment Terms:
TT OR LC
Min Order Qty:
100 m.t.
Supply Capability:
10000 m.t./month

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Prefabricated Steel Structure Workshop Projects

 

1.Structure of Prefabricated Steel Structure Workshop Projects

 

Prefabricated Steel Structure Buildings for Industry  is one kinds of the normal industrial building nowadays, which is more and more popular in the industry area. Its components are manufactured by steel material in the factory and prefabricated before entering the site, so the installation is very fast and easy.


2.Main Features of Prefabricated Steel Structure Workshop Projects

•Easy Elevation

•Shorter Construction Period
•Safer to Build

•Cost is Lower

•Envirommental

•Stronger especially on resist the earthquake

3. Prefabricated Steel Structure Buildings for Industry  

 

 

Prefabricated Steel Structure Workshop Projects


 

 Prefabricated Steel Structure Workshop Projects

 

 

 

4. Prefabricated Steel Structure Workshop Projects Specification

Design&Engineering Service, Steel Building,Space Frames, Portable Cabins, Tubular Steel Structures,basic building elements(built-up welded H-section , hot-rolled H-section, channel, steel column, steel beam),standard frames, secondary framing, roof & wall materials, Tempcon (sandwich) panels

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Project Scope:

industrial plant/workshop/warehouse/factores, airport terminal, highrise building, bridge, commercial center,  exhibition hall, stadium and the like

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Certificate:

 ISO9001:2000 ; ISO14001:2004 and OHSAS18000

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Engineering Design Software:

AutoCAD,PKPM,MTS,3D3S, Tarch, Tekla Structures(Xsteel)V12.0.etc

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5.FAQ of Prefabricated Steel Structure Workshop Projects

We have organized several common questions for our clients,may help you sincerely: 

 

①How about your company?

A world class manufacturer & supplier of castings forging in carbon steel and alloy steel,is one of the large-scale professional investment casting production bases in China,consisting of both casting foundry forging and machining factory. Annually more than 8000 tons Precision casting and forging parts are exported to markets in Europe,America and Japan. OEM casting and forging service available according to customer’s requirements.

 

②How to guarantee the quality of the products?

We have established the international advanced quality management system,every link from raw material to final product we have strict quality test;We resolutely put an end to unqualified products flowing into the market. At the same time, we will provide necessary follow-up service assurance.

 

③How could I get the best quotation?

Please write down your requirement including the size of the building, where is the building, is it near the sea or windy area? Or other any details you want and you know. We will give you the best quotation if your quantity is big enough.



 



Q: How are steel parking structures constructed?
Steel parking structures are typically constructed using a combination of prefabricated steel components and on-site assembly. The process involves carefully planning and designing the structure, fabricating steel members off-site, and then assembling them on-site using cranes and other construction equipment. The steel components are connected together using bolts or welding, ensuring stability and strength. This method allows for faster construction times and offers flexibility in design, making steel parking structures a popular choice for many projects.
Q: What are the disadvantages of using steel structures?
There are several disadvantages associated with using steel structures. Firstly, steel is a relatively expensive material compared to other construction materials such as wood or concrete. The cost of purchasing and installing steel can significantly increase the overall construction budget. Secondly, steel structures are prone to corrosion, especially in environments with high humidity and salt content. This can lead to deterioration and weakening of the structure over time, requiring regular maintenance and additional costs for protective coatings or treatments to prevent corrosion. Moreover, steel structures can be susceptible to fire. While steel itself does not burn, it loses its strength and integrity at high temperatures. In the event of a fire, steel structures can collapse more quickly than other materials, which poses a significant safety risk. Additionally, steel structures have poor thermal insulation properties. Steel is an excellent conductor of heat, making it difficult to maintain a comfortable indoor temperature. This can result in higher energy costs for heating or cooling the building, as well as discomfort for occupants. Furthermore, steel structures require skilled labor and specialized equipment for fabrication and installation. This can increase construction time and complexity, leading to potential delays and higher labor costs. Lastly, steel structures have limited design flexibility compared to other materials. The strength and rigidity of steel make it challenging to create curved or intricate architectural designs, limiting the aesthetic possibilities for the structure. Overall, while steel structures offer numerous advantages such as durability and strength, these disadvantages should be carefully considered before deciding to use steel in construction projects.
Q: How are steel structures designed for blast impact loads?
Steel structures are designed for blast impact loads by considering factors such as the magnitude and location of the blast, the desired level of protection, and the structural response. Designers use specialized software and guidelines to analyze the dynamic response of the structure to blast loads, ensuring that it can withstand the impact and mitigate potential damage. This involves selecting appropriate materials, designing robust connections, and incorporating measures like blast-resistant windows or protective barriers. Overall, the goal is to create a structure that can effectively absorb and dissipate the energy from a blast, minimizing the risk to occupants and preserving the integrity of the building.
Q: How are steel structures designed for snow sliding prevention?
Steel structures are designed to prevent snow sliding through the incorporation of various design features. One important aspect is the angle of the roof or surface where snow may accumulate. By providing a steeper slope, the likelihood of snow sliding off the structure is increased. This is achieved by carefully calculating the pitch and slope of the roof or surface to ensure optimal snow shedding. In addition to the slope, steel structures may also incorporate features such as snow guards or snow fences. These are typically installed on the roof or surface to hinder the movement of snow and prevent it from sliding off in large quantities. Snow guards can be designed as metal bars or grids that are strategically placed to create friction and hold the snow in place. Snow fences, on the other hand, are physical barriers that are installed along the edges of the roof or surface to trap the snow, preventing it from sliding off. Furthermore, steel structures designed for snow sliding prevention may also include measures to melt the snow. This can be achieved through the use of snow melting systems, such as heating cables or radiant heating. These systems are installed beneath the surface of the roof or structure and generate heat to melt the snow, preventing it from accumulating and sliding off in large amounts. Overall, the design of steel structures for snow sliding prevention involves careful consideration of the slope, the incorporation of snow guards or snow fences, and the use of snow melting systems. By implementing these design features, steel structures can effectively prevent snow sliding and ensure the safety and integrity of the building.
Q: What are the common design considerations for steel parking structures?
Some common design considerations for steel parking structures include structural stability, load capacity, durability, corrosion resistance, fire safety, ventilation, aesthetic appeal, and ease of maintenance.
Q: How are steel structures designed for natural ventilation and daylighting?
There are multiple ways in which steel structures can be designed to promote natural ventilation and maximize daylighting. For instance, openable windows, louvers, vents, or skylights can be incorporated into steel structures to facilitate the controlled flow of fresh air into the building, reducing the need for mechanical ventilation systems and creating a more comfortable indoor environment. During the design phase, airflow patterns can be carefully planned to ensure proper circulation by taking advantage of prevailing winds and natural convection currents. Furthermore, steel structures can include atriums, courtyards, or voids within their designs to exploit the stack effect, which utilizes the difference in air density to induce vertical airflow. By allowing warm air to rise and escape through high openings while cooler air enters through lower openings, a natural ventilation system is created. Steel structures offer the flexibility to design large, open spaces that enhance the stack effect and encourage natural airflow. In terms of daylighting, steel structures can feature large windows, glazed facades, or curtain walls to maximize the entry of natural light. The use of steel frames enables the creation of expansive window openings, which not only provide ample daylight but also offer panoramic views. These frames can support the weight of large glass panels, allowing architects to design buildings with extensive glazing for improved daylighting. Additionally, steel structures can incorporate light shelves, solar shading devices, or light-diffusing materials to control the amount and distribution of natural light. These elements help reduce glare, balance daylight levels, and minimize the need for artificial lighting during daylight hours. By harnessing natural light, steel structures contribute to a more pleasant and productive indoor environment while also reducing energy consumption. Overall, by carefully considering natural ventilation and daylighting strategies, steel structures can create sustainable and comfortable spaces that prioritize occupant well-being and reduce energy demand.
Q: How do steel structures provide resistance against structural instability?
Steel structures provide resistance against structural instability through their inherent strength and durability. Steel has a high strength-to-weight ratio, meaning it can support large loads while being relatively lightweight. Additionally, steel is highly ductile, which means it can deform without breaking under excessive loads, allowing it to absorb and distribute forces effectively. Furthermore, steel structures can be designed with various structural elements, such as bracing and trusses, which enhance their stability and rigidity. Overall, the combination of steel's strength, ductility, and design flexibility helps to prevent structural instability and ensure the longevity and safety of steel structures.
Q: How are steel structures used in the construction of libraries?
Steel structures are commonly used in the construction of libraries to provide a strong and durable framework. This allows for large open spaces, flexible floor plans, and the ability to support heavy loads such as books and equipment. Steel structures also offer excellent fire resistance, ensuring the safety of library patrons and valuable resources.
Q: What are the energy efficiency benefits of using steel in structures?
There are several energy efficiency benefits associated with using steel in structures. Firstly, steel is known for its high strength-to-weight ratio, which means that it can support heavy loads while requiring less material compared to other construction materials such as concrete. This reduction in material usage leads to less energy being consumed during the manufacturing process. Additionally, steel structures are often designed with smaller foundations, resulting in less excavation and concrete usage, which further reduces energy consumption. Secondly, steel is a highly durable material that is resistant to corrosion, fire, and pests. This durability translates into longer building lifespans, reducing the need for frequent repairs, renovations, and replacements. Consequently, less energy is expended on maintenance activities, resulting in lower energy consumption throughout the lifespan of the structure. Furthermore, steel structures can be easily disassembled and reused, making them a sustainable choice. This adaptability allows for the recycling and repurposing of steel components, reducing the demand for new materials and the associated energy required for their extraction and production. By promoting a circular economy, the use of steel in structures contributes to resource conservation and energy efficiency. Moreover, steel possesses excellent thermal properties, allowing for efficient insulation. This insulation capability helps in reducing heating and cooling costs by minimizing energy loss through the building envelope. Properly insulated steel structures can maintain comfortable indoor temperatures with less reliance on artificial heating and cooling systems, thereby reducing energy consumption and lowering carbon emissions. Lastly, the energy efficiency of steel structures can be further improved through the integration of renewable energy technologies. Solar panels, wind turbines, and other renewable energy systems can be easily incorporated into steel structures, harnessing clean energy and reducing reliance on fossil fuels. In conclusion, the energy efficiency benefits of using steel in structures are numerous. From reduced material usage during construction, to the long lifespan and recyclability of steel structures, to their excellent thermal properties and compatibility with renewable energy systems, steel offers a sustainable and energy-efficient solution for the built environment.
Q: What are the advantages of using steel structures in the oil and gas industry?
The advantages of using steel structures in the oil and gas industry are: 1. Strength and durability: Steel structures provide exceptional strength and durability, making them ideal for withstanding harsh weather conditions, heavy loads, and seismic activities, ensuring the safety and longevity of oil and gas facilities. 2. Cost-effectiveness: Steel structures are cost-effective due to their ease of fabrication, installation, and maintenance. They can be prefabricated off-site, reducing construction time and costs. Additionally, steel structures require minimal maintenance, saving on long-term expenses. 3. Adaptability and flexibility: Steel structures can be easily modified, expanded, or relocated to accommodate changing needs in the oil and gas industry. This adaptability allows for more efficient use of resources and enables flexibility in responding to evolving production requirements. 4. Safety and fire resistance: Steel structures have high fire resistance capabilities, making them suitable for oil and gas facilities where fire hazards are prevalent. Additionally, steel structures can be designed to meet stringent safety regulations, reducing the risk of accidents and ensuring the protection of personnel and equipment. 5. Sustainability: Steel is a highly sustainable material as it is 100% recyclable. The use of steel structures in the oil and gas industry promotes environmental responsibility by reducing waste and carbon emissions associated with construction processes, making it an eco-friendly choice. Overall, the advantages of using steel structures in the oil and gas industry lie in their strength, durability, cost-effectiveness, adaptability, safety, and sustainability, making them an ideal choice for constructing facilities in this sector.

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