• HD200 High quality portable bailey steel bridge components System 1
  • HD200 High quality portable bailey steel bridge components System 2
  • HD200 High quality portable bailey steel bridge components System 3
  • HD200 High quality portable bailey steel bridge components System 4
  • HD200 High quality portable bailey steel bridge components System 5
  • HD200 High quality portable bailey steel bridge components System 6
HD200 High quality portable bailey steel bridge components

HD200 High quality portable bailey steel bridge components

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Loading Port:
Shanghai
Payment Terms:
TT OR LC
Min Order Qty:
1 set
Supply Capability:
1000 set/month

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The compact 200 panel bridge is similar to the compact 100 panel bridge from their appearance. The difference is its increased panel height to 2.134m. It employed the method of alternating joints between Reinforcement Chords and the joints between panels. This method can decrease inelastic deformation caused by the oversized pinholes.  Pre-arch method is used to additionally cut down mid-span and vertical deflection to a larger degree. Bolt-connected components use the orienting sleeve- fixing method to increase accuracy of connections. Shear is created in orienting sleeves and tension is developed in bolts, which increase the usage life of the bolts and ensure the safety of panel bridges. Wind resistant brace is made to be composite type and is connected to transom/girders to improve overall stability of panel bridges. 

The part between braced frame and panels is fixed through bridging so as to prevent the whole bridge from side bending. After the erection, there will be a pre-arched degree over the span of the bridge. Besides it can be assembled into single-lane bridges. The compact 200 panel bridge can also be assembled into double lane bridge, hence it broadens its application range. It is suitable for the load designs of HS-15, HS-20, HS-25 and pedrail-50 etc. 

 


Q:How are steel structures designed for flood loads?
In order to withstand flood loads, steel structures are designed with several key considerations. One of these is the potential flood level or water depth that the structure may be exposed to. This information is used to determine the design flood load, which represents the maximum force the structure must be able to resist. Engineers employ various design methodologies to ensure the integrity of steel structures during flood events. These include the selection of appropriate materials and the implementation of corrosion protection measures to prevent deterioration over time. Additionally, structural elements are designed to account for dynamic forces caused by moving floodwaters, such as hydrostatic pressure and wave action. Buoyancy forces are another crucial aspect of designing steel structures for flood loads. Engineers must guarantee that the structure is sufficiently anchored or weighted down to prevent floating or overturning, as floods can exert significant upward pressure on structures. This can be achieved through the inclusion of anchorage systems, ballast weights, or other means of enhancing stability. Furthermore, flood-resistant steel structures often incorporate flood openings or vents in walls or foundations. These openings allow floodwaters to pass through the structure, reducing excessive pressure. The size, location, and number of flood openings are determined based on hydraulic calculations to ensure proper water flow while maintaining structural integrity. In summary, designing steel structures to withstand flood loads requires a comprehensive understanding of expected flood conditions, the selection of suitable materials, and the incorporation of specific design features to resist forces and potential buoyancy effects. By considering these factors, engineers can ensure that steel structures are resilient and capable of enduring the impact of flood events.
Q:How do steel structures perform in terms of natural ventilation and air quality?
Steel structures can provide good natural ventilation due to their ability to incorporate large openings and windows. However, in terms of air quality, steel structures do not have a direct impact as it mainly depends on the materials used for interior finishes and the ventilation system implemented within the building.
Q:What are the common applications of steel structures in residential buildings?
Steel structures are commonly used in residential buildings for a variety of applications. Some of the common uses include the construction of load-bearing walls, beams, and columns, as well as framing for roofs and floors. Steel structures provide durability, strength, and flexibility, making them ideal for withstanding heavy loads, earthquakes, and extreme weather conditions. They also allow for open floor plans, large windows, and spacious interiors, providing architectural freedom and design flexibility. Additionally, steel structures are sustainable and can be easily recycled, making them an eco-friendly choice for residential construction.
Q:What are the different types of steel cladding systems?
There are several types of steel cladding systems, including corrugated steel panels, standing seam panels, insulated metal panels, and metal shingles. Each system offers different aesthetics, durability, and installation requirements to suit various architectural and construction needs.
Q:What are the advantages of using steel as a construction material for building structures?
There are several advantages of using steel as a construction material for building structures. First and foremost, steel is known for its exceptional strength and durability. It has a high strength-to-weight ratio, meaning it can withstand heavy loads without buckling or collapsing. This makes it an ideal choice for constructing tall and large buildings, bridges, and other structures that require significant structural integrity. Additionally, steel is highly resistant to various environmental factors. It is not susceptible to rot, termites, or mold, unlike wood or other organic materials. Steel is also fire-resistant, which enhances the safety of the building by slowing down the spread of fire and providing more time for evacuation. Another advantage of steel is its versatility in design. It can be easily molded and shaped into different forms, allowing architects and engineers to create intricate and unique structures. Steel can be fabricated off-site and then assembled on-site, reducing construction time and labor costs. Moreover, steel is a sustainable and eco-friendly material. It is 100% recyclable, meaning it can be reused without losing its properties. This helps to reduce waste and conserve natural resources. Additionally, the energy required to produce steel has significantly reduced over the years, making it a more energy-efficient option compared to other construction materials. Furthermore, steel structures are known for their longevity. Steel has a long lifespan and requires minimal maintenance. It does not warp, crack, or shrink over time, ensuring the structural stability of the building for decades. This reduces the need for frequent repairs or replacements, saving both time and money in the long run. In conclusion, the advantages of using steel as a construction material for building structures are its strength, durability, resistance to environmental factors, versatility in design, sustainability, and longevity. These factors make steel an excellent choice for a wide range of construction projects, providing safety, efficiency, and cost-effectiveness.
Q:How are steel structures designed for bridges and infrastructure projects?
Steel structures for bridges and infrastructure projects are designed through a rigorous process that involves careful analysis, extensive calculations, and adherence to various design codes and standards. Designers consider factors such as the intended use, load requirements, environmental conditions, and site-specific constraints. They employ computer-aided design (CAD) software and advanced engineering techniques to determine the ideal dimensions, material specifications, and structural configurations. The design also considers factors like stability, durability, and safety to ensure that the steel structures can withstand the anticipated loads and last for their intended lifespan.
Q:How are steel structures designed for blast resistance?
Steel structures are designed for blast resistance by considering various factors such as the type and magnitude of potential blasts, the proximity of the structure to potential sources of explosions, and the desired level of protection. Designers use advanced computer modeling and simulation techniques to analyze the behavior of steel structures under blast loads, ensuring that the structures can withstand and mitigate the effects of blasts. Additionally, strategies like using blast-resistant materials, incorporating redundancy and robustness in the structural system, and implementing blast-resistant design details are employed to enhance the overall blast resistance of steel structures.
Q:How are steel structures designed for long spans and open spaces?
Designing steel structures for long spans and open spaces involves capitalizing on the unique properties of the material and employing efficient structural systems. Firstly, steel's high strength-to-weight ratio allows for the construction of lightweight structures that can cover vast areas without the need for intermediate supports. This property enables the design of long-span steel structures that can span large distances. To achieve this, engineers utilize various structural systems such as trusses, arches, and cable-supported structures. Trusses effectively distribute loads across multiple members, reducing the need for bulky columns or walls. Arches provide natural stability, enabling long spans with minimal internal supports. Cable-supported structures, like suspension bridges, utilize strong steel cables to support the weight of the structure, allowing for even longer spans. In addition, computer-aided design (CAD) and advanced analysis software play a crucial role in designing steel structures for long spans and open spaces. These tools enable engineers to accurately analyze structural behavior and optimize designs for maximum efficiency. By simulating different loading conditions and testing various design options, engineers can identify the most suitable structural system and select the appropriate steel sections to achieve the desired span and open space. Furthermore, prefabrication techniques are employed in the construction of steel structures, offering several benefits. Prefabrication allows for faster construction and reduces disruption to the surrounding area. It ensures high precision and quality control, resulting in efficient and reliable structures. In conclusion, the design of steel structures for long spans and open spaces involves leveraging the material's inherent strength, utilizing efficient structural systems, employing advanced analysis tools, and implementing prefabrication techniques. These factors contribute to the creation of versatile, cost-effective, and aesthetically pleasing solutions for various applications, such as warehouses, sports arenas, exhibition halls, and airports.
Q:How are steel structures recycled?
Steel structures are recycled through a process called steel scrap recycling. Firstly, the steel structure is dismantled carefully, ensuring that reusable components are salvaged. Next, the steel is separated from other materials like concrete and wood. After sorting, the steel is sent to a recycling facility where it is shredded into small pieces. These pieces are then melted down in a furnace, removing impurities and creating new steel. The recycled steel is then used to manufacture new steel products, reducing the need for raw materials and conserving energy.
Q:What is the purpose of steel bracing in a structure?
The purpose of steel bracing in a structure is to provide additional strength and stability, helping to resist lateral forces such as wind or seismic activity. It helps distribute and transfer these forces to the foundation, enhancing the overall structural integrity and preventing excessive deformations or collapses.

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