• Steel-frame working platformfor Formwork and Scaffolding system System 1
  • Steel-frame working platformfor Formwork and Scaffolding system System 2
Steel-frame working platformfor Formwork and Scaffolding system

Steel-frame working platformfor 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.




Q: What are the considerations when designing steel formwork for swimming pools?
Several important factors must be considered when designing steel formwork for swimming pools. These factors include the structural integrity and strength of the formwork, the accuracy and precision of its dimensions, the ease of assembly and disassembly, and its ability to withstand the corrosive effects of water and pool chemicals. To begin with, the structural integrity and strength of the steel formwork are of utmost importance. It must be capable of supporting the weight and pressure exerted by the concrete during pouring and curing. The design should prevent any potential deformation or buckling that could compromise the pool structure. The thickness and reinforcement of the steel must be calculated meticulously to meet the required load-bearing capacity. The accuracy and precision of the formwork's dimensions are also crucial considerations. The design should ensure precise and consistent dimensions to maintain the pool's shape and size accurately. This is particularly critical for swimming pools, as any deviation from the intended design could lead to uneven water levels or compromised aesthetic appeal. Another consideration is the ease of assembly and disassembly. The formwork should be designed for effortless installation and removal to facilitate efficient construction processes. The components should securely fit together and allow for quick adjustments or modifications if needed. This can help reduce construction time and labor costs. Furthermore, the corrosive effects of water and pool chemicals need to be taken into account. The steel formwork should be treated or coated with materials that can withstand exposure to the water and chemicals commonly found in swimming pools. This will prevent rust and deterioration, ensuring the formwork's longevity and durability. In conclusion, designing steel formwork for swimming pools requires careful consideration of structural integrity, dimensional accuracy, ease of assembly, and resistance to corrosion. By addressing these considerations, the formwork can provide a solid foundation for the construction of a high-quality and long-lasting swimming pool.
Q: Can steel formwork be used for architectural concrete walls with complex geometries?
Yes, steel formwork can be used for architectural concrete walls with complex geometries. Steel formwork offers several advantages for such applications. It is highly durable and can withstand the pressure exerted by the concrete during pouring and curing. Steel formwork also provides excellent dimensional accuracy, ensuring that the concrete walls are built according to the desired complex geometries. Moreover, steel formwork allows for easy customization and flexibility in design. It can be easily fabricated into various shapes and sizes, enabling architects to create intricate and unique architectural concrete walls. Steel formwork also offers a smooth and uniform finish to the concrete, resulting in aesthetically pleasing walls. Additionally, steel formwork is reusable, making it a cost-effective choice for projects with complex geometries. It can be dismantled and used for multiple projects, reducing the overall construction costs. Steel formwork is also easy to clean and maintain, further enhancing its usability and longevity. In conclusion, steel formwork is an ideal choice for architectural concrete walls with complex geometries. It provides strength, durability, dimensional accuracy, customization options, and cost-effectiveness, making it a suitable solution for constructing visually appealing and structurally sound concrete walls.
Q: What are the common design considerations for steel formwork?
When considering the design of steel formwork, several factors need to be taken into account to ensure its efficiency and effectiveness. Firstly, the load-bearing capacity of the steel formwork should be carefully calculated and designed. The formwork needs to be able to support the weight of the fresh concrete and any additional loads, such as workers or equipment, without any deformation or failure. This requires evaluating the maximum expected load and selecting the appropriate steel grade and thickness. Secondly, the formwork should be designed to be easily assembled and disassembled. This is particularly important for projects with tight schedules or limited space. The formwork should consist of modular components that can be quickly and accurately connected, allowing for efficient construction and easy removal after the concrete has cured. Thirdly, the formwork design should take into consideration the desired surface finish of the concrete. If a smooth surface is desired, the formwork needs to be properly aligned and leveled to ensure an even and consistent concrete finish. Additionally, the formwork should be designed to prevent any leakage or seepage of the concrete, which could lead to surface imperfections or structural issues. Another important consideration is the stability and rigidity of the formwork. Steel formwork must be able to withstand the lateral pressure exerted by the fresh concrete without any significant deformation or displacement. Proper bracing and tie systems should be incorporated into the design to ensure the formwork remains stable during the concrete pouring process. Additionally, safety should be a top priority in the design of steel formwork. The formwork should be designed to provide a safe working environment for the construction workers, with adequate access, guardrails, and fall protection systems. The formwork design should also consider the ease of installation and removal of safety features, such as scaffolding or temporary platforms. Lastly, the formwork design should take into account the reusability and durability of the steel components. Steel formwork is often used in multiple projects, so it should be designed to withstand repeated use and be resistant to corrosion or wear. Proper maintenance and storage considerations should also be incorporated into the design to prolong the lifespan of the formwork. In conclusion, the common design considerations for steel formwork include load-bearing capacity, ease of assembly and disassembly, surface finish requirements, stability and rigidity, safety, reusability, and durability. By carefully considering these factors, a well-designed steel formwork can contribute to the successful and efficient construction of concrete structures.
Q: Can steel formwork be used for precast concrete slabs?
Yes, steel formwork can be used for precast concrete slabs. Steel formwork is a commonly used method for creating the molds or formwork for pouring concrete in precast construction. Steel formwork offers several advantages, including high durability, reusability, and superior strength compared to other types of formwork materials. It provides a rigid and stable structure that can withstand the weight and pressure of the concrete during the casting process. Steel formwork also allows for precise shaping and finishing of the concrete slabs, ensuring a high-quality and consistent end product. It can be easily assembled and disassembled, making it suitable for repetitive use in precast concrete production. Additionally, steel formwork can be designed and customized to meet specific project requirements, including different sizes, shapes, and patterns for the concrete slabs. However, it is important to consider the cost and maintenance of steel formwork, as it can be more expensive compared to other types of formwork materials such as wood or plastic. Regular maintenance and cleaning are necessary to ensure the longevity and efficiency of steel formwork. Overall, steel formwork is a reliable and widely used option for creating molds for precast concrete slabs, offering numerous benefits in terms of strength, durability, and customization options.
Q: What are the different types of formwork supports used with steel formwork systems?
There are several types of formwork supports that are commonly used with steel formwork systems. These supports are designed to provide stability and strength to the formwork, ensuring that it can withstand the weight of the concrete during pouring and curing. 1. Adjustable Steel Shoring: This type of support consists of adjustable steel props or jacks that can be extended or retracted to the desired height. These supports are typically used for vertical or horizontal applications and can be easily adjusted to accommodate different formwork heights. 2. Scaffolding: Scaffolding is a versatile formwork support system that is commonly used in construction projects. It consists of a network of metal tubes and boards that can be assembled and disassembled to create a stable platform for workers and materials. Scaffolding can be used to support formwork systems in both vertical and horizontal applications. 3. Strongbacks: Strongbacks are horizontal supports that are used to provide additional strength and stability to the formwork system. These supports are typically made of steel beams or channels and are placed parallel to the formwork panels. Strongbacks help to distribute the load evenly and prevent deflection or deformation of the formwork. 4. Bracing: Bracing is used to provide lateral stability to the formwork system. It consists of diagonal or cross-braces that are placed between the vertical supports. Bracing helps to prevent any movement or displacement of the formwork panels during pouring and curing. 5. Tie Rods: Tie rods are used to hold the formwork panels together and provide additional strength. These rods are typically made of steel and are inserted through holes in the formwork panels. They are then tightened with nuts and washers to securely hold the panels in place. 6. Props and Soldiers: Props and soldiers are vertical supports that are used to hold up the formwork panels. These supports are typically made of steel and can be adjusted to the desired height. Props are used in conjunction with other supports, such as strongbacks or tie rods, to provide additional stability to the formwork system. Overall, these different types of formwork supports are essential for ensuring the stability and strength of steel formwork systems during construction projects. They help to distribute the load evenly, prevent movement or displacement, and provide the necessary support for pouring and curing concrete.
Q: Steel formwork in the construction project, after the completion of concrete pouring, the wall surface from the powder seriously how to deal with?
There is a problem with the ratio of the concrete itself.
Q: What are the different types of lifting systems used in steel formwork?
Steel formwork utilizes different types of lifting systems to meet specific requirements and ensure efficient and safe lifting operations. Some commonly used lifting systems include: 1. Crane lifting system: The most widely used system in steel formwork, cranes with various capacities are employed to lift and position formwork panels and components. They offer flexibility, high lifting capacity, and are suitable for large-scale construction projects. 2. Mechanical lifting system: This system employs mechanical devices like winches, hoists, or jacks to lift and position the formwork. It is ideal for smaller projects or areas inaccessible to cranes. Mechanical lifting systems are portable, user-friendly, and can be employed in confined spaces. 3. Hydraulic lifting system: Hydraulic systems use fluid pressure to lift and move the formwork. They provide precise control and are capable of handling heavy loads effortlessly. Hydraulic lifting systems are commonly used in high-rise buildings and projects that require smooth and controlled lifting. 4. Manual lifting system: In certain cases, manual lifting systems are used, especially for smaller formwork components or when machinery access is limited. This method involves utilizing manual labor to lift and position the formwork. It is cost-effective but requires more manpower and may not be suitable for larger or heavier formwork elements. 5. Pneumatic lifting system: Pneumatic lifting systems use compressed air to lift and move the formwork. They provide swift and efficient lifting operations and are suitable for projects with specific requirements, such as those involving hazardous materials or explosive environments. The choice of lifting system depends on various factors, including formwork size and weight, project requirements, available resources, and site conditions. Prioritizing safety measures, proper training, and supervision are crucial when utilizing lifting systems to prevent accidents and ensure smooth construction operations.
Q: Can steel formwork be used in extreme weather conditions?
Indeed, extreme weather conditions pose no challenge for the utilization of steel formwork. Steel, being an enduring and robust substance, can endure and withstand the harshest weather conditions, including scorching heat, freezing cold, heavy rain, and strong winds. Unlike wood or plywood, steel formwork remains impervious to moisture and temperature fluctuations, thus rendering it perfectly suitable for deployment in extreme weather conditions. Furthermore, steel formwork guarantees superior stability and structural resilience, thereby ensuring the safety and steadfastness of the construction project, even amidst adverse weather conditions. Nevertheless, it is crucial to bear in mind the necessity of adequately safeguarding and maintaining steel formwork to prevent corrosion or damage that may arise over time due to exposure to extreme weather conditions.
Q: What is the lifespan of steel formwork?
The lifespan of steel formwork can vary depending on various factors such as the quality of the steel used, the conditions it is exposed to, and the maintenance practices employed. Generally, steel formwork is known for its durability and longevity. With proper care and maintenance, it can last for several years and even decades. The high strength and resistance to wear and tear make steel formwork suitable for repeated use in construction projects. However, the lifespan of steel formwork can be affected by factors such as exposure to harsh weather conditions, improper handling, and inadequate maintenance. Corrosion can also be a concern, especially if the steel is exposed to moisture or chemicals without proper protection. To maximize the lifespan of steel formwork, it is important to use high-quality steel that is resistant to corrosion. Regular inspections should be conducted to identify any signs of damage or deterioration, and prompt repairs or replacements should be carried out. Proper cleaning, storage, and handling practices should also be followed to prevent unnecessary wear and tear. In conclusion, while the lifespan of steel formwork can vary, it can be expected to last for several years and even decades if high-quality steel is used, proper maintenance is carried out, and it is protected from corrosion and damage.
Q: What are the considerations when selecting the appropriate formwork system for a project?
When selecting the appropriate formwork system for a project, there are several considerations that need to be taken into account. These considerations include the type of structure being constructed, the required finish of the concrete, the project timeline, the budget, and the available resources. The type of structure being constructed is a crucial factor in selecting the formwork system. Different structures, such as walls, columns, or slabs, require different types of formwork systems to ensure proper support and stability. It is important to understand the specific requirements of the structure before choosing a formwork system. The required finish of the concrete also plays a role in selecting the appropriate formwork system. If a smooth and seamless finish is desired, a formwork system that can provide the necessary level of detail and precision must be chosen. On the other hand, if a rough finish is acceptable, a simpler and less expensive formwork system may be sufficient. The project timeline is another key consideration. Some formwork systems are quicker and easier to assemble and dismantle, which can help speed up the construction process. Additionally, the availability of the formwork system and the lead time required for procurement should also be considered to ensure that it aligns with the project schedule. Budget is always an important consideration in any construction project. Formwork systems vary in cost, and it is essential to select a system that fits within the project's budget. It is also important to consider the long-term cost implications, such as maintenance and reusability, to determine the overall cost-effectiveness of the chosen formwork system. Lastly, the available resources, including labor and equipment, should be taken into account when selecting a formwork system. Some systems may require specialized labor or equipment, which may not be readily available or may require additional costs. Considering the resources at hand will help determine the feasibility and practicality of a particular formwork system. In conclusion, selecting the appropriate formwork system for a project requires careful consideration of the type of structure, required concrete finish, project timeline, budget, and available resources. By evaluating these factors, project managers can make informed decisions that will contribute to the successful completion of the project.

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