• Steel Frame SF140 for Formwork and Scaffolding system System 1
  • Steel Frame SF140 for Formwork and Scaffolding system System 2
Steel Frame SF140 for Formwork and Scaffolding system

Steel Frame SF140 for Formwork and Scaffolding system

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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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Steel-frame Formwork SF-140


Characteristics:

◆ Few parts for fast forming.

◆ Max. Concrete pressure: 80KN/m2.

◆ Hot-dip galvanized steel frame.

◆ The thickness of plywood is 18mm & the panel is 14cm.

◆ Compatibility with Hunnebeck Manto system due to similar edge profile.


System Details & Application:

◆ Neat joint and fast assembling with aligning panel clamp.

◆ Flexible panel arrangement and height extension.

◆ The selection of panels.

◆ Kinds of panel connectors.

◆ Corner clamp application.

◆ Length adjustment application.

◆ Height adjustment & aligning strut.

◆ Walkway bracket & platform.


Steel Frame SF140 for Formwork and Scaffolding system

Steel Frame SF140 for Formwork and Scaffolding system

Steel Frame SF140 for Formwork and Scaffolding system


Q:The wooden plank road construction, the steel structure and the template pavement, the railing installation all construction labor cost to want how many money? Or how much a square?
Under normal circumstances, in accordance with the plant area of about 30--60 per square meter. For reference only.
Q:What are the typical safety certifications for steel formwork systems?
Steel formwork systems typically require several safety certifications to ensure their quality and adherence to safety standards. These certifications include: 1. ISO 9001: This certification guarantees that the manufacturer has implemented a quality management system, covering design, production, and installation procedures. It ensures that the system meets the necessary standards and specifications. 2. European Conformity (CE) Marking: Mandatory for steel formwork systems sold in the European Union, this certification confirms compliance with essential health and safety requirements. The CE marking guarantees rigorous testing and adherence to necessary safety standards. 3. Occupational Safety and Health Administration (OSHA) Compliance: In the United States, steel formwork systems must comply with OSHA's safety regulations. These regulations encompass fall protection, scaffolding safety, and other safety measures. Compliance ensures the safety of workers involved in installation and use. 4. American National Standards Institute (ANSI) Certification: ANSI provides certifications for various products, including steel formwork systems. Certification signifies that the system meets specific safety and performance requirements, providing assurance to users that it has undergone thorough testing and meets industry standards. 5. International Code Council Evaluation Service (ICC-ES) Certification: This certification independently verifies compliance with International Building Code (IBC) requirements. It ensures that the system has been evaluated and deemed safe for use in construction projects. These safety certifications are crucial for steel formwork systems to demonstrate compliance with industry standards, ensuring worker safety and system reliability during construction projects. Manufacturers and suppliers must obtain these certifications to instill confidence in their products and facilitate their use in construction projects worldwide.
Q:How does steel formwork accommodate for different concrete curing durations?
Steel formwork is a versatile and durable option for concrete construction projects that allows for accommodating different concrete curing durations effectively. One way steel formwork accommodates for different concrete curing durations is by providing a stable and rigid structure that ensures the concrete retains its shape and strength during the curing process. The steel panels and frames used in formwork are designed to withstand the pressure exerted by the fresh concrete, preventing any deformation or collapse. Additionally, steel formwork allows for easy removal and reassembly, providing flexibility in adjusting the formwork setup to match the required curing duration. This is particularly useful in cases where different sections of the concrete structure need varying curing durations due to factors such as structural requirements or environmental conditions. Furthermore, steel formwork can be easily modified or adjusted to accommodate the use of various curing techniques. For instance, if a project requires accelerated curing methods, such as the use of steam or heat, steel formwork can be adapted to incorporate the necessary insulation or heating elements. This promotes faster curing while maintaining the stability and integrity of the formwork. Moreover, steel formwork offers efficient handling and transportation, allowing for the swift repositioning or removal of forms as required. This is especially advantageous when dealing with time-sensitive projects where different sections of the structure may need to be cured at different times. In summary, steel formwork accommodates for different concrete curing durations by providing a strong and stable structure that supports the concrete during the curing process. Its versatility allows for easy adjustment and modification to cater to varying curing techniques, while its ease of handling and transportation facilitates efficient repositioning or removal of formwork.
Q:Can steel formwork be used for energy-efficient concrete buildings?
Energy-efficient concrete buildings can utilize steel formwork. The strength, durability, and versatility of steel formwork make it a suitable option for constructing energy-efficient structures. Precise design and construction are achievable with steel formwork, which is essential for achieving energy efficiency in buildings. Architects and engineers can customize steel formwork to create intricate designs and complex shapes, allowing for the incorporation of energy-efficient features like insulated walls, solar shading devices, and efficient HVAC systems. Furthermore, steel formwork offers excellent thermal conductivity, which helps maintain consistent indoor temperatures and reduces energy consumption. By using steel formwork, concrete walls and floors can be designed with insulation materials that provide high thermal resistance, minimizing heat transfer through the building envelope. This reduces the energy required for heating and cooling, resulting in improved energy efficiency. In addition, steel formwork is easily reusable, reducing construction waste and promoting sustainability. It can be dismantled and reassembled for multiple projects, making it a cost-effective and environmentally friendly choice. Choosing steel formwork for energy-efficient concrete buildings not only minimizes energy consumption but also reduces the overall environmental impact. To conclude, steel formwork is an effective choice for constructing energy-efficient concrete buildings. Its strength, durability, versatility, and thermal conductivity make it suitable for incorporating energy-efficient features into the building design. Moreover, its reusability promotes sustainability, making steel formwork a viable option for creating energy-efficient structures.
Q:What are the common design considerations for steel formwork in cold climates?
Several factors need to be taken into account when designing steel formwork in cold climates to ensure its structural integrity, safety, and efficiency. These considerations are crucial in extreme weather conditions. 1. The selection of the appropriate steel grade is crucial to withstand low temperatures without compromising strength. It is essential to choose high-quality steel with good cold resistance properties to prevent brittleness and potential failure. 2. Insulation materials should be incorporated into the design to minimize heat loss during concrete curing. Insulating the formwork walls and base can prevent freezing, which may cause cracking and reduced structural integrity. 3. Steel contracts in cold temperatures, leading to misalignment and buckling of the formwork. To accommodate thermal expansion and contraction, it is important to include expansion joints or flexible connections in the formwork design. 4. Proper anchoring and support systems need to be incorporated into the formwork design to ensure stability and prevent shifting or settling, especially in cold climates with freeze-thaw cycles that cause significant ground movement. 5. Cold and humid environments can accelerate corrosion of steel. Enhancing durability and prolonging the lifespan of the steel formwork can be achieved by incorporating corrosion-resistant coatings or galvanizing. 6. The formwork design should take into consideration the additional loads imposed by accumulated snow in cold climates with heavy snowfall. This is necessary to prevent overloading and potential collapse of the structure. 7. Cold temperatures can affect the performance of fastening systems, such as bolts and screws. It is crucial to use appropriate fasteners that can withstand low temperatures and prevent loosening due to thermal contraction. 8. Considering the ease of assembly and dismantling of the formwork is important in cold climates where extreme temperatures may hinder construction activities. Designing the formwork system with easy-to-use connections and fasteners can improve efficiency and reduce construction time. By taking these common design considerations into account, engineers and designers can ensure that steel formwork in cold climates is safe, reliable, and capable of withstanding the harsh conditions.
Q:How is steel formwork disassembled?
Steel formwork is typically disassembled by removing the formwork components in a systematic manner. This involves loosening and removing the fasteners, such as bolts and clamps, that hold the formwork together. Once the fasteners are removed, the individual formwork panels or sections can be lifted or dismantled and taken apart. Careful handling and proper storage of the disassembled steel formwork components is necessary to ensure their longevity and future use.
Q:How does steel formwork contribute to improved construction site logistics?
Steel formwork contributes to improved construction site logistics in several ways. Firstly, steel formwork is lightweight and easily movable, making it more convenient to transport and set up on-site. This reduces the time and effort required for assembling and dismantling formwork, leading to improved efficiency in construction site logistics. Secondly, steel formwork is durable and can be reused multiple times, minimizing the need for constant replacement. This not only saves costs but also reduces the amount of waste generated at the construction site, contributing to better waste management and environmental sustainability. Furthermore, steel formwork provides precise and accurate results, ensuring that the concrete structures being built are of high quality and meet the required standards. This helps in avoiding rework or corrections, which can cause delays in the construction process. Overall, the use of steel formwork in construction enhances the overall logistics of the site by improving transportation, reducing waste, and ensuring quality construction, ultimately leading to more efficient and successful projects.
Q:Are there any specific considerations for using steel formwork in areas with high traffic loads?
Yes, when using steel formwork in areas with high traffic loads, it is important to consider the strength and durability of the steel to ensure it can withstand the heavy loads. Additionally, proper reinforcement and support systems should be in place to distribute the weight evenly and prevent any deformation or structural failures. Regular inspections and maintenance are also crucial to identify and address any potential issues that may arise due to the high traffic loads.
Q:Are there any limitations to using steel formwork?
Yes, there are some limitations to using steel formwork. Firstly, steel formwork is relatively expensive compared to other types of formwork materials such as wood or plastic. This can make it less cost-effective for smaller projects or projects with a limited budget. Secondly, steel formwork is heavy and requires heavy lifting equipment for installation and removal. This can be a challenge in areas with limited access or where cranes and other heavy machinery may not be readily available. Additionally, steel formwork requires skilled labor for proper installation and dismantling. It is important to have experienced workers who are familiar with the use of steel formwork to ensure the safety and effectiveness of the formwork system. Furthermore, steel formwork is susceptible to corrosion if not properly protected. This can be a concern in environments with high humidity or exposure to moisture, requiring additional maintenance and protective measures. Lastly, steel formwork is not as flexible or adaptable as other types of formwork materials. It may not be suitable for complex or irregular shapes and may require more time and effort to customize for specific project requirements. Overall, while steel formwork offers durability and strength, its limitations in terms of cost, weight, labor requirements, susceptibility to corrosion, and flexibility should be considered when choosing the most appropriate formwork system for a specific construction project.
Q:What are the different types of formwork joints used in steel formwork?
There are several types of formwork joints commonly used in steel formwork, including butt joints, lap joints, and tongue and groove joints. Butt joints involve aligning the edges of two formwork panels and securing them together with bolts or clamps. Lap joints involve overlapping two panels and securing them with bolts or clamps. Tongue and groove joints involve interlocking the edges of two panels, creating a tight and secure connection. Each type of joint has its own advantages and is used based on the specific requirements of the formwork project.

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