• Timber-beam formwork H20 for formwork and scaffolding systems System 1
  • Timber-beam formwork H20 for formwork and scaffolding systems System 2
Timber-beam formwork H20 for formwork and scaffolding systems

Timber-beam formwork H20 for formwork and scaffolding systems

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
50 m²
Supply Capability:
1000 m²/month

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Characteristics:

◆ Standardized production lines.

Supply capability: 3000m/day, Lmax = 6600mm.

◆ Finger jointing of the flange and web, the strength of timber beam is highly improved.

Max. shearing force failure load:40KN

◆ Well treated to prevent from water penetration or erosion, so the service life maximally

extended.

Normally, CNBM timber beam H20 can be used for 4 to 5 years, the exact using time would

depend on maintenance & storage.

◆ Robust caps at the end of the girders protect against damages.


Q:New building formwork support is all steel
The utility model relates to a supporting structure of a new type of shear wall formwork support, which is assembled and assembled by flexible steel components of various sizes. All steel productsThe utility model has the advantages of saving a large amount of wood, the shaping of the tools, and the standardization of the workersThe utility model has the advantages of flexible regulation and arbitrary combination, which brings convenience to the construction and greatly improves the construction efficiencyThe utility model provides a guarantee for the engineering quality, and the concrete construction fully achieves the effect of the clear water concreteRepair stage of the plastering process, shorten the duration of the project also greatly save money.
Q:Can steel formwork be used for structures with high fire resistance requirements?
Steel formwork can indeed be used for structures with high fire resistance requirements. Steel is known for its excellent fire resistance properties as it has a high melting point, which means it can withstand high temperatures for a longer period of time compared to other materials. This makes it an ideal choice for structures that need to meet stringent fire safety standards. When using steel formwork, it is important to ensure that the design and construction techniques are in line with the fire resistance requirements. The steel formwork should be properly insulated to prevent the transfer of heat to the concrete structure during a fire. This can be achieved by using fire-resistant insulation materials or by applying a fire-resistant coating to the steel formwork. Additionally, it is crucial to consider the fire resistance of the concrete itself. Concrete is inherently fire-resistant due to its low thermal conductivity and high density. However, the inclusion of certain additives, such as fire-resistant admixtures or fibers, can further enhance the fire resistance of the concrete. By combining the fire-resistant properties of steel formwork with appropriate design and construction techniques, it is possible to achieve structures that meet high fire resistance requirements. However, it is always recommended to consult with fire safety experts and adhere to local building codes and regulations to ensure the highest level of fire safety in any construction project.
Q:What are the different types of finishes available for steel formwork panels?
There are several different types of finishes available for steel formwork panels, each offering unique benefits and applications. 1. Smooth Finish: This is the most common type of finish for steel formwork panels. It provides a smooth surface, ensuring a clean and precise finish on the concrete. Smooth finishes are ideal for projects where a high-quality surface is required, such as architectural structures or exposed concrete elements. 2. Textured Finish: Textured finishes add a decorative or non-slip surface to the steel formwork panels. These finishes can be achieved through various methods, including brushing, sandblasting, or applying textured coatings. Textured finishes are commonly used for pedestrian walkways, ramps, or areas where traction is important. 3. Patterned Finish: Patterned finishes offer a unique aesthetic appeal to the concrete surface. They can be achieved by incorporating patterns or designs into the steel formwork panels, such as stamped or embossed patterns. Patterned finishes are often used in decorative applications, such as building facades, retaining walls, or interior wall panels. 4. Coated Finish: Coated finishes involve applying a protective coating to the steel formwork panels. This coating can be a paint or a specialized protective material, such as epoxy or polyurethane. Coated finishes provide additional durability, corrosion resistance, and weather resistance to the panels, making them suitable for long-term use in harsh environments. 5. Polished Finish: Polished finishes involve polishing the steel formwork panels to create a reflective surface. This type of finish is commonly used in architectural or decorative applications where a high-gloss, mirror-like appearance is desired. Polished finishes can enhance the aesthetics of the concrete surface and create a visually striking effect. Overall, the choice of finish for steel formwork panels depends on the specific requirements of the project, including the desired surface quality, functionality, and aesthetics. It is important to consider factors such as durability, ease of maintenance, cost, and environmental impact when selecting the appropriate finish for steel formwork panels.
Q:How does steel formwork affect the overall cost of concrete placement?
Steel formwork can significantly impact the overall cost of concrete placement due to its higher initial investment compared to other types of formwork. However, steel formwork offers advantages such as durability, reusability, and faster construction times, which can help reduce labor costs and increase productivity in the long run. Additionally, steel formwork provides a smoother finish to concrete surfaces, reducing the need for additional finishing work and potentially saving on material costs.
Q:How does steel formwork contribute to the efficiency of construction processes?
Steel formwork contributes to the efficiency of construction processes by providing a durable and reusable framework for casting concrete structures. Its strength and rigidity allow for faster construction progress, as it can withstand the pressure exerted by wet concrete, resulting in shorter construction cycles. Additionally, steel formwork allows for precise and accurate shaping of concrete elements, ensuring the desired dimensions and quality of the final product. Its reusability minimizes waste, reduces costs, and promotes sustainability in construction projects.
Q:How does steel formwork contribute to the overall construction process?
Steel formwork is a crucial component in the construction process as it provides a sturdy and durable framework for pouring concrete. It ensures that the concrete is poured into the desired shape and size, allowing for the creation of accurate and precise structures. Steel formwork also helps speed up the construction process by providing a reusable and easily adjustable system, reducing labor and material costs. Additionally, it enhances the overall strength and stability of the structure, making it an essential element for the successful completion of construction projects.
Q:How does steel formwork affect the overall project cost estimation?
The overall project cost estimation can be significantly influenced by the use of steel formwork. Although steel formwork may have a higher initial cost when compared to materials like timber or plywood, it offers several advantages that can lead to long-term cost savings. To begin with, steel formwork is extremely durable and can be used multiple times. Unlike timber or plywood formwork that may require replacement after a few uses, steel formwork can withstand numerous cycles, reducing the need for frequent replacements. This not only saves on material costs but also reduces the labor and time required for formwork installation and removal. Moreover, steel formwork provides superior quality finishes, resulting in a decreased need for surface treatments or plastering. This saves both material and labor costs associated with finishing work. Furthermore, steel formwork offers greater precision and dimensional accuracy, reducing the need for rework or adjustments during construction. This helps minimize material wastage and saves time and labor costs. In addition, steel formwork is highly resistant to moisture and weathering, allowing it to be used in various weather conditions without compromising its structural integrity. This flexibility enables more efficient construction scheduling, reducing downtime and potential cost overruns. Lastly, steel formwork can support greater concrete pouring heights and pressures, enabling faster construction and increased productivity. This can result in accelerated project timelines and reduced labor costs. In conclusion, while steel formwork may have a higher initial cost, its durability, reusability, improved finishes, precision, resistance to weathering, and ability to support larger concrete pours can lead to significant cost savings in terms of material, labor, and time. Therefore, steel formwork has a positive impact on the overall project cost estimation.
Q:What are the limitations of using steel formwork?
Using steel formwork in construction projects has several limitations. Firstly, it is a relatively expensive option compared to materials like wood or aluminum, which can significantly increase construction costs for large-scale projects. Secondly, the heaviness of steel formwork necessitates the use of heavy machinery and equipment for transportation and installation. This can pose challenges in areas with limited access or on sites with uneven terrain. In addition, skilled labor is required for the proper installation and dismantling of steel formwork. If the workforce lacks experience in working with steel formwork, this can lead to delays and increased labor costs. Furthermore, steel formwork is not as flexible as other materials, which can limit design possibilities for complex or irregular shapes. Another drawback is the potential for corrosion. Steel formwork is susceptible to rust and corrosion, particularly in environments with high moisture or chemical exposure. Regular maintenance and corrosion protection measures are necessary to ensure the longevity of steel formwork. Lastly, steel formwork is not as environmentally friendly as other alternatives. The production of steel involves significant energy consumption and carbon emissions, contributing to environmental degradation. Overall, while steel formwork offers strength and durability, it is important to carefully consider its limitations in terms of cost, weight, flexibility, corrosion susceptibility, and environmental impact before selecting it for construction projects.
Q:What are the different types of formwork joints used in steel formwork?
In steel formwork, there are various types of formwork joints that are commonly used. These joints are designed to ensure the proper alignment, stability, and strength of the formwork system. Some of the different types of formwork joints used in steel formwork include: 1. Butt Joint: This is the most common type of joint used in steel formwork. In this joint, two formwork panels are aligned end-to-end, with the edges in direct contact with each other. The panels are then secured using bolts or clamps to ensure a tight fit. 2. Lap Joint: In a lap joint, one formwork panel overlaps the other, creating a connection between the two panels. This joint provides additional strength and stability to the formwork system. The overlapping portion is usually secured using bolts or clamps. 3. Corner Joint: As the name suggests, a corner joint is used to connect two formwork panels at a corner. This joint is typically formed by cutting and welding the panels at a 90-degree angle. The welded joint ensures a strong and secure connection between the panels. 4. T-Joint: A T-joint is formed when one formwork panel intersects another panel at a right angle, creating the shape of the letter "T". This joint is commonly used in complex formwork systems where multiple panels need to be interconnected. 5. Hinged Joint: A hinged joint is used when there is a requirement for a flexible connection between two formwork panels. This joint allows for movement and adjustment of the panels, which can be useful in situations where the formwork needs to accommodate irregular shapes or angles. 6. Slip Joint: A slip joint is used to create a temporary and adjustable connection between two formwork panels. This joint allows for easy removal and repositioning of the panels during the construction process. It is often used when the formwork needs to be adjusted for different pour heights or angles. These are just a few examples of the different types of formwork joints used in steel formwork. The choice of joint depends on the specific requirements of the construction project, including factors such as load-bearing capacity, ease of assembly and disassembly, and overall stability of the formwork system.
Q:How does steel formwork prevent concrete bleeding?
Steel formwork is a type of temporary structure that is used in construction to hold and shape the concrete until it sets and hardens. One of the advantages of using steel formwork is that it can help prevent concrete bleeding, which is the process of water separating from the mixture and rising to the surface. Steel formwork is typically designed with tight joints and smooth surfaces, which helps to create a watertight seal around the concrete. This prevents water from seeping out of the mixture and rising to the surface, reducing the occurrence of concrete bleeding. Additionally, the rigid nature of steel formwork prevents the concrete from settling or shifting during the pouring process, further minimizing the potential for bleeding. Furthermore, steel formwork offers better stability and durability compared to other types of formwork materials. Its rigid structure ensures that the formwork remains intact and maintains the desired shape during the concrete pouring process, preventing any movement that could lead to bleeding. In conclusion, steel formwork prevents concrete bleeding by providing a tight seal, stability, and a smooth surface. These features prevent water from separating from the mixture and rising to the surface, resulting in a higher quality and more visually appealing concrete finish.

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