Steel Structure Plant
- Ref Price:
-
- Loading Port:
- Tianjin Port
- Payment Terms:
- TT or LC
- Min Order Qty:
- 1000MTONS m.t.
- Supply Capability:
- 3500MT/MONTH m.t./month
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Specifications of steel structure plant
The project is generator sets mechanical assembly plant.
The largest crane: 400MTs
Building area: 40000 square meters
Quantity: 8000 MTs
1. GB standard material
2. High Structural safety and reliability
3. The production can reach GB/JIS/ISO/ASME standard
Packaging & Delivery of steel structure plant
1. According to the project design and the component size, usually the main component parts are nude packing and shipped by bulk vessel. And the small parts are packed in box or suitable packages and shipped by containers.
2. This will be communicated and negotiated with buyer according to the design.
Engineering Design Software of steel structure plant
Tekla Structure \ AUTO CAD \ PKPM software etc
⊙Complex spatial structure project detailed design
⊙Construct 3D-model and structure analysis. ensure the accuracy of the workshop drawings
⊙Steel structure detail ,project management, automatic Shop Drawing, BOM table automatic generation system.
⊙Control the whole structure design process,we can obtain higher efficiency and better results
Technical support of steel structure plant
|
Worker |
Rate of frontline workers with certificate on duty reaches 100% |
|
Welder |
186 welders got AWS & ASME qualification 124 welders got JIS qualification 56 welders got DNV &BV qualification |
|
Technical inspector |
40 inspectors with UT 2 certificate 10 inspectors with RT 2 certificate 12 inspectors with MT 2 certificate 3 inspectors with UT3 certificate |
|
Engineer |
21 engineers with senior title 49 engineers with medium title 70 engineers with primary title. 61 First-Class Construction Engineers 182 Second-Class Construction Engineers |
|
International certification |
10 engineers with International Welding engineer, 8 engineers with CWI. |
Production Flow of steel structure plant
Material preparation—cutting—fitting up—welding—component correction—rust removal—paint coating—packing—to storage and transportation (each process has the relevant inspection)
Usage/Applications of steel structure
*Characters of Structure Steel
1. Steel is characterized by high strength, light weight, good rigidity, strong deformation capacity, so it is suitable for construction of large-span, super high and super-heavy buildings particularly;
2. It with good homogeneous and isotropic, is an ideal elastomer which perfectly fits the application of general engineering;
3. The material has good ductility and toughness, so it can have large deformation and it can well withstand dynamic loads;
4. Steel structure’s construction period is short;
5. Steel structure has high degree of industrialization and can realize-specialized production with high level of mechanization.
*Steel structure application
1. Heavy industrial plants: relatively large span and column spacing; with a heavy duty crane or large-tonnage cranes; or plants with 2 to 3 layers cranes; as well as some high-temperature workshop should adopt steel crane beams, steel components, steel roof, steel columns, etc. up to the whole structure.
2. Large span structure: the greater the span of the structure, the more significant economic benefits will have by reducing the weight of the structure
3. Towering structures and high-rise buildings: the towering structure, including high-voltage transmission line towers, substation structure, radio and television emission towers and masts, etc. These structures are mainly exposed to the wind load. Besides of its light weight and easy installation, structure steel can bring upon with more economic returns by reducing the wind load through its high-strength and smaller member section.
4. Structure under dynamic loads: As steel with good dynamic performance and toughness, so it can be used directly to crane beam bearing a greater or larger span bridge crane
5. Removable and mobile structures: Structure Steel can also apply to movable Exhibition hall and prefabricated house etc by virtue of its light weight, bolt connection, easy installation and uninstallation. In case of construction machinery, it is a must to use structure steel so as to reduce the structural weight.
6. Containers and pipes: the high-pressure pipe and pipeline, gas tank and boiler are all made of steel for the sake of its high strength and leakproofness
7. Light steel structure: light steel structures and portal frame structure combined with single angle or thin-walled structural steel with the advantages of light weight, build fast and steel saving etc., in recent years has been widely used.
8. Other buildings: Transport Corridor, trestle and various pipeline support frame, as well as blast furnaces and boilers frameworks are usually made of steel structure.
All in all, according to the reality, structure steel is widely used for high, large, heavy and light construction.
- Q: How are steel structures designed for data centers and server farms?
- Steel structures for data centers and server farms are designed with a focus on strength, durability, and flexibility. They are typically designed to support heavy loads, such as servers and equipment racks, while also ensuring stability and protection against natural disasters or other potential hazards. Additionally, the design takes into consideration factors like space utilization, cooling requirements, and accessibility for maintenance and upgrades. Overall, the goal is to create a robust and efficient steel structure that can accommodate the specific needs of a data center or server farm.
- Q: What are the considerations when designing steel structures for oil and gas refineries?
- When designing steel structures for oil and gas refineries, several considerations need to be taken into account. Firstly, the structures must be designed to withstand the corrosive environment that exists in refineries. This involves using corrosion-resistant materials and protective coatings. Additionally, the structures should be designed to handle the heavy loads and vibrations that are typically present in refinery operations. This requires careful analysis of the structural integrity and the use of appropriate support systems. Fire safety is another crucial consideration. Steel structures need to be designed to withstand high temperatures and prevent the spread of fires. Fireproofing measures and adequate ventilation systems should be incorporated into the design. Moreover, the design should facilitate efficient and safe access for maintenance and inspection activities. This includes providing adequate platforms, walkways, and ladders, as well as considering the layout and spacing of equipment. Lastly, compliance with relevant industry standards and regulations is essential. Designers must consider codes such as API (American Petroleum Institute) standards and local building codes to ensure the structures meet the required safety and performance criteria. Overall, designing steel structures for oil and gas refineries requires a comprehensive understanding of the unique challenges and requirements of these facilities, including corrosion, heavy loads, fire safety, accessibility, and compliance with industry standards.
- Q: What are the advantages of using steel in the construction of office buildings?
- There are several advantages to using steel in the construction of office buildings. Firstly, steel is known for its strength and durability, making it an ideal material to withstand the demands of a commercial building. It provides excellent structural support, allowing for large open spaces and flexible floor plans. Secondly, steel is highly fire-resistant, reducing the risk of damage and ensuring the safety of occupants. Additionally, steel is a sustainable and environmentally friendly option as it is recyclable and can be reused in future projects, reducing waste. Furthermore, using steel in construction enables faster construction times, as it is prefabricated off-site, leading to cost savings and quicker occupancy. Overall, steel offers numerous advantages, making it a popular choice for constructing office buildings.
- Q: How are steel structures used in research and laboratory buildings?
- Steel structures are widely used in research and laboratory buildings due to their numerous advantages. Firstly, steel is known for its strength and durability, making it an ideal material for supporting heavy scientific equipment and machinery. This allows for the construction of large open spaces without the need for excessive columns or walls, providing flexibility for future modifications or reconfigurations of the building layout. Additionally, steel structures offer a high level of precision and accuracy, which is crucial in research and laboratory settings. The dimensional stability of steel ensures that measurements and experiments are not affected by structural deformations over time. This is especially important in environments where sensitive instruments and equipment are used, as even the slightest movement or vibration can compromise the accuracy of results. Steel also possesses excellent fire resistance properties, which is essential for laboratory buildings where hazardous materials are handled. Steel structures can be designed to meet specific fire resistance requirements, ensuring the safety of researchers and preventing the spread of fire in case of an accident or malfunction. Moreover, steel structures are relatively lightweight compared to other construction materials, allowing for faster and more efficient construction processes. This is particularly advantageous for research and laboratory buildings where time is a critical factor in project completion. The use of steel also reduces the need for extensive foundations, resulting in cost savings and less disruption to the surrounding environment. In terms of sustainability, steel structures are highly recyclable and can be reused or repurposed after their useful life, minimizing waste and reducing the environmental impact. Steel also has a lower carbon footprint compared to other materials commonly used in construction, making it a more sustainable choice for research and laboratory buildings. Overall, the use of steel structures in research and laboratory buildings offers numerous benefits, including strength, durability, precision, fire resistance, efficiency, and sustainability. These advantages make steel a preferred choice for creating safe, adaptable, and functional spaces that meet the unique requirements of research and laboratory facilities.
- Q: How are steel structures designed to be resistant to progressive collapse?
- Steel structures are designed to be resistant to progressive collapse through careful engineering and the implementation of various design strategies. Progressive collapse refers to the failure of a structure due to the localized failure of a primary structural element, leading to the collapse of adjacent elements and potentially causing widespread damage. To ensure resistance against progressive collapse, several key design considerations are taken into account: 1. Redundancy: Steel structures are designed with redundancy in mind. This means that multiple load paths are incorporated into the design, allowing the structure to redistribute the loads in case of a localized failure. Redundancy helps prevent the propagation of failure and limits the extent of damage. 2. Robustness: The concept of robustness in structural design involves ensuring that the structure can withstand unexpected events or extreme loads. Steel structures are designed with robust connections and detailing, which enhance their ability to resist progressive collapse. By providing robustness, the structure can absorb and distribute the energy generated during a local failure, limiting its impact on the overall stability. 3. Continuity: Continuity in structural elements plays a crucial role in preventing progressive collapse. It involves the proper connection and integration of different structural elements to ensure load transfer and sharing. For steel structures, continuity is achieved by connecting beams, columns, and other components effectively, reducing the risk of localized failure and the subsequent collapse of the entire structure. 4. Ductility and Energy Absorption: Steel, as a material, possesses excellent ductility, which allows it to deform and absorb energy under extreme loading conditions. This ductility is harnessed in the design of steel structures to provide enhanced resistance against progressive collapse. By allowing controlled deformation, the structure can absorb and dissipate the energy generated during a localized failure, preventing its propagation. 5. Advanced Analysis Techniques: Modern engineering practices utilize advanced analysis techniques, such as finite element analysis, to evaluate the behavior of steel structures under different loading scenarios. These techniques help identify potential weak points and areas susceptible to progressive collapse, enabling engineers to make necessary design modifications or reinforce critical elements. By incorporating these design strategies, steel structures can effectively resist progressive collapse, ensuring the safety and integrity of the overall structure even in the event of localized failures.
- Q: What is the cost comparison between steel and other construction materials?
- The cost comparison between steel and other construction materials can vary depending on several factors, including location, availability, market demand, and project specifications. Generally speaking, steel tends to be more expensive than materials like wood or concrete. One of the main reasons for steel's higher cost is its strength and durability. Steel is renowned for its exceptional strength-to-weight ratio, which makes it an ideal choice for structural components in buildings or bridges. This high strength enables lighter and more efficient designs, but it also comes with a higher price tag. Additionally, the production and fabrication processes of steel can be more intricate and costly when compared to other materials. Steel necessitates specialized equipment, skilled labor, and precise engineering to ensure proper fabrication, transportation, and installation. These factors contribute to the overall cost of utilizing steel in construction projects. Nevertheless, it is important to note that the longevity and low maintenance requirements of steel can counterbalance its initial higher cost over the life cycle of a building. Unlike wood or certain other materials, steel is resistant to pests, rot, and decay. It also possesses excellent fire resistance properties, making it a secure and enduring option for construction. Ultimately, it is crucial to evaluate the specific needs and requirements of a construction project and consider various factors such as material availability, project scale, design complexity, and long-term maintenance costs. By taking these aspects into account, one can make an informed decision regarding the cost comparison between steel and other construction materials.
- Q: What are the design considerations for steel healthcare campuses?
- Some design considerations for steel healthcare campuses include structural integrity, flexibility for future expansion, infection control measures, efficient space utilization, and accessibility for patients with disabilities. Additionally, incorporating natural light, creating a soothing and healing environment, and implementing sustainable design features are also important considerations.
- Q: How are steel structures designed to accommodate signage and wayfinding systems?
- Steel structures are commonly used to accommodate signage and wayfinding systems due to their strength, durability, and versatility. When designing steel structures to accommodate signage and wayfinding systems, several factors are considered to ensure their effective integration and functionality. Firstly, the load-bearing capacity of the steel structure is assessed to determine its ability to support signage and wayfinding systems. The weight and dimensions of the signage, as well as any additional components such as lighting or directional arrows, are taken into account to ensure that the steel structure can adequately support them without compromising its structural integrity. Next, the location and positioning of the signage and wayfinding systems are carefully planned to maximize visibility and accessibility. Steel structures can be designed with various mounting options, such as brackets, frames, or clamps, to securely hold the signage in place. The size and orientation of the signage are also considered to ensure that it can be easily seen and understood by pedestrians or drivers. Moreover, the design of the steel structure takes into consideration the aesthetics of the signage and wayfinding systems. Steel structures can be customized with different finishes, colors, or textures to complement the overall design theme or branding of a particular location. This ensures that the signage and wayfinding systems seamlessly blend into their surroundings and enhance the overall visual appeal. In terms of maintenance and accessibility, steel structures are designed to allow for easy installation, removal, and replacement of signage and wayfinding systems. Access panels, hatches, or removable sections can be incorporated into the design to facilitate maintenance and ensure that the signage can be easily updated or repaired when needed. Lastly, safety considerations are of utmost importance when designing steel structures to accommodate signage and wayfinding systems. Proper installation techniques, such as using secure fasteners, are employed to prevent any risk of the signage becoming loose or falling. Additionally, measures are taken to ensure that the signage does not obstruct visibility or pose any hazards to pedestrians or vehicles in the vicinity. Overall, steel structures are designed with careful consideration of load-bearing capacity, visibility, aesthetics, maintenance, and safety to effectively accommodate signage and wayfinding systems. By integrating these factors, steel structures provide a reliable and robust framework for effective communication and guidance in various environments.
- Q: What are the design considerations for steel railway bridges?
- There are several design considerations that need to be taken into account when designing steel railway bridges. Firstly, one of the most important considerations is the structural integrity and load-bearing capacity of the bridge. Steel, being a strong and durable material, is commonly used for railway bridges as it can withstand heavy loads and provide the necessary strength to support trains passing over it. The design should ensure that the bridge can handle the weight of the trains and their dynamic loads without experiencing any excessive deflection or deformation. Secondly, the design must consider the span length of the bridge. Longer spans require more complex and larger structural elements, which can increase the cost and construction time. Therefore, the design should aim to optimize the span length to ensure efficiency and cost-effectiveness while meeting the required load-bearing capacity. Another important consideration is the alignment and curvature of the railway track. The bridge design needs to accommodate the track alignment while maintaining the required clearances for trains. The alignment and curvature of the track will affect the design of the bridge piers and abutments, as well as the superstructure elements such as girders or trusses. Furthermore, the design must also consider the environmental factors. Steel railway bridges are exposed to various weather conditions, including wind, rain, and temperature variations. The design should take into account the potential impact of these environmental factors on the performance and durability of the bridge. It may involve incorporating protective coatings or corrosion-resistant materials to enhance the longevity of the bridge. Additionally, the design should consider the constructability and maintenance requirements. The bridge design should be feasible to construct within the available timeframe and resources. It should also allow for easy access to perform maintenance and inspections, ensuring that any necessary repairs or replacements can be carried out efficiently. Lastly, aesthetics and urban integration may be considered. Depending on the location of the bridge, its design might need to complement the surrounding landscape or urban environment. This could involve incorporating architectural features or aesthetic treatments to create an aesthetically pleasing structure. In conclusion, design considerations for steel railway bridges include structural integrity, load-bearing capacity, span length optimization, alignment and curvature compatibility, environmental factors, constructability, maintenance requirements, and aesthetics. All these factors need to be carefully considered to ensure the safe, efficient, and sustainable operation of railway bridges.
- Q: Can steel structures be designed to be resistant to corrosion from acidic substances?
- Yes, steel structures can be designed to be resistant to corrosion from acidic substances. One commonly used method is to apply a protective coating on the surface of the steel, such as paint or epoxy, which acts as a barrier between the metal and the corrosive substances. This coating prevents the acidic substances from coming into direct contact with the steel, thereby minimizing the risk of corrosion. Additionally, stainless steel, which contains a higher percentage of chromium, can also be used in the construction of steel structures. The chromium forms a thin oxide layer on the surface of the steel, providing it with excellent resistance to corrosion from acidic substances. Furthermore, proper design considerations, such as selecting the appropriate steel grade and thickness, can also contribute to the overall corrosion resistance of the structure. By employing these preventive measures and careful design, steel structures can indeed be designed to withstand the corrosive effects of acidic substances.
1. Manufacturer Overview
| Location | SHANDONG,China |
| Year Established | 2008 |
| Annual Output Value | Above US$20 Billion |
| Main Markets | WEST AFRICA,INDIA,JAPAN,AMERICA |
| Company Certifications | ISO9001:2008;ISO14001:2004 |
2. Manufacturer Certificates
| a) Certification Name | |
| Range | |
| Reference | |
| Validity Period |
3. Manufacturer Capability
| a) Trade Capacity | |
| Nearest Port | TIANJIN PORT/ QINGDAO PORT |
| Export Percentage | 0.6 |
| No.of Employees in Trade Department | 3400 People |
| Language Spoken: | English；Chinese |
| b) Factory Information | |
| Factory Size: | Above 150,000 square meters |
| No. of Production Lines | Above 10 |
| Contract Manufacturing | OEM Service Offered；Design Service Offered |
| Product Price Range | Average, High |
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Steel Structure Plant
- Ref Price:
-
- Loading Port:
- Tianjin Port
- Payment Terms:
- TT or LC
- Min Order Qty:
- 1000MTONS m.t.
- Supply Capability:
- 3500MT/MONTH m.t./month
OKorder Service Pledge
OKorder Financial Service
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