• Single-side Climbing Bracket SCB180 for formwork and scaffolding system System 1
  • Single-side Climbing Bracket SCB180 for formwork and scaffolding system System 2
Single-side Climbing Bracket SCB180 for formwork and scaffolding system

Single-side Climbing Bracket SCB180 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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Single-side Climbing Bracket SCB180

With CNBM SCB 180 climbing systems, the loads from the fresh concrete pressure are transferred through the brackets by means of V-strongbacks and compression braces into the scaffold anchors.

Typical applications for the SCB 180 are dams, locks, cooling towers, pier heads, tunnels, and bank vaults.

The formwork is simply tilted backwards when striking takes place. The 1.80 m wide bracket requires only a minimum of space.


Characteristics:

◆ Economical and safe anchoring

The M30/D20 climbing cones have been designed especially for single-sided concreting using

SCB180 in dam construction, and to allow the transfer of high tensile and shear forces into the still

fresh, unreinforced concrete. Without wall-through tie-rods, finished concrete is perfect.

◆ Stable and cost-effective for high loads

generous bracket spacings allow large-area formwork units with optimal utilization of the bearing

capacity. This leads to extremely economical solutions.

◆ Simple and flexible planning

With SCB180 single-sided climbing formwork, circular structures can also be concreted without

undergoing any large planning process. Even use on inclined walls is feasible without any special

measures because additional concrete loads or lifting forces can be safely transferred into the

structure.



Q:How does steel formwork handle different concrete crack control measures?
Steel formwork is an excellent choice for accommodating different concrete crack control measures due to its inherent strength and durability. It is capable of withstanding the pressure exerted during the curing process, reducing the risk of cracks caused by formwork deflection. Additionally, steel formwork allows for tighter control over the placement of reinforcement and use of expansion joints, which are effective measures for preventing cracks. Overall, steel formwork provides a reliable and versatile solution for addressing various crack control measures in concrete construction.
Q:How is steel formwork cleaned and maintained?
Steel formwork is commonly used in construction projects due to its durability and reusability. To ensure its longevity and to maintain its quality, regular cleaning and maintenance are crucial. Here are some steps to clean and maintain steel formwork: 1. Remove concrete residue: After each use, any concrete residue should be removed from the steel formwork. This can be done by chipping away the hardened concrete using a hammer or chisel. Care should be taken not to damage the formwork surface during this process. 2. Power washing: Once the larger chunks of concrete are removed, power washing can be done using a high-pressure water jet. This helps to dislodge any remaining concrete particles and dirt from the surface of the formwork. Make sure to use appropriate safety measures, such as wearing protective clothing and goggles, while power washing. 3. Chemical cleaning: In cases where stubborn stains or concrete deposits are difficult to remove through power washing alone, a chemical cleaning solution can be used. There are various commercially available concrete removers that can be applied to the formwork surface. Follow the manufacturer's instructions for proper usage and safety precautions. 4. Rust removal and prevention: Steel formwork is susceptible to rusting, which can weaken its structural integrity. Regularly inspect the formwork for any signs of rust and remove it using wire brushes or sandpaper. After rust removal, apply a rust-inhibiting primer or a protective coating to prevent further rusting. This should be done before storing the formwork to ensure it remains in good condition. 5. Proper storage: When not in use, steel formwork should be stored in a clean and dry environment. Avoid exposure to moisture, extreme temperatures, and corrosive substances, as these can adversely affect the formwork's quality. Proper stacking and organization can also prevent damage and deformation during storage. Regular maintenance and cleaning of steel formwork is essential to ensure its longevity and reusability. By following these steps and taking appropriate precautions during cleaning and storage, steel formwork can be kept in optimal condition for future construction projects.
Q:What are the common quality control measures for steel formwork systems?
Common quality control measures for steel formwork systems include: 1. Visual inspection: This involves checking the overall condition of the steel formwork system for any visible defects, such as dents, cracks, or deformations. Any damaged or compromised components should be repaired or replaced. 2. Measurement and dimensional control: Accurate measurements and dimensional control are crucial for ensuring the proper fit and alignment of steel formwork components. This can be achieved through the use of precision measuring tools and equipment. 3. Welding inspection: Steel formwork systems often rely on welded joints to connect the various components. Therefore, it is important to conduct thorough inspections of the welds to ensure they are free from defects, such as cracks or incomplete penetration. Non-destructive testing methods, such as visual inspection, ultrasonic testing, or magnetic particle testing, may be used to assess the quality of welds. 4. Load testing: Load testing is performed to verify the structural integrity and load-bearing capacity of the steel formwork system. This involves applying a predetermined load to the system and assessing its performance under stress. Load testing can help identify any weaknesses or defects that may compromise the safety and stability of the formwork. 5. Surface finish inspection: The surface finish of steel formwork systems should be smooth and free from any roughness or irregularities that may affect the quality of the concrete finish. Inspections should be carried out to ensure that the formwork surfaces are properly cleaned, treated, and coated, if required. 6. Documentation and traceability: Quality control measures should include proper documentation and traceability of the steel formwork system components. This includes maintaining records of inspections, repairs, replacements, and any other relevant information. Proper documentation ensures that any issues or concerns can be addressed promptly and accurately. These quality control measures are essential for ensuring the durability, safety, and performance of steel formwork systems in construction projects.
Q:How does steel formwork handle concrete temperature differentials?
Steel formwork is a popular choice for concrete construction due to its durability and strength. When it comes to handling concrete temperature differentials, steel formwork offers several advantages. Firstly, steel has a high coefficient of thermal conductivity, meaning it can quickly absorb and distribute heat. This property allows steel formwork to efficiently dissipate the heat generated during the hydration process of concrete. As a result, steel formwork helps to minimize the risk of thermal cracking caused by temperature differentials. Furthermore, steel formwork is known for its dimensional stability. Unlike other materials like wood, steel does not expand or contract significantly with temperature changes. This stability ensures that the formwork maintains its shape and integrity, even when exposed to varying concrete temperatures. It helps to prevent any distortions, warping, or bulging that could affect the quality and appearance of the concrete structure. Additionally, steel formwork is resistant to fire and high temperatures, making it suitable for handling concrete that undergoes rapid temperature changes, such as in hot weather conditions or during the curing process. Its ability to withstand extreme temperatures without deforming or losing its structural integrity ensures that the formwork remains intact and provides the necessary support and containment for the concrete. In summary, steel formwork effectively handles concrete temperature differentials by efficiently dissipating heat, maintaining dimensional stability, and withstanding high temperatures. These properties contribute to the overall quality and durability of the concrete structure, while minimizing the risk of thermal cracking and other issues caused by temperature variations.
Q:How does steel formwork contribute to better concrete compaction?
Steel formwork contributes to better concrete compaction by providing a rigid structure that holds the concrete in place during the pouring and curing process. This prevents any movement or leakage of the concrete, ensuring that it remains in the desired shape and compacted state. Additionally, steel formwork allows for the application of external pressure, such as vibrating equipment, which helps to further compact the concrete and eliminate any air voids or pockets. Overall, steel formwork plays a vital role in achieving a more uniform and dense concrete structure, leading to improved strength, durability, and overall quality of the finished product.
Q:Are there any special considerations when using steel formwork in cold weather conditions?
Yes, there are several special considerations when using steel formwork in cold weather conditions. Firstly, steel contracts and becomes more brittle in cold temperatures, which can increase the risk of cracks or fractures in the formwork. Therefore, it is important to ensure that the steel formwork is properly designed and reinforced to withstand the potential stress caused by temperature changes. Secondly, cold weather can also affect the curing process of concrete. Steel formwork tends to conduct heat away from the concrete, slowing down the curing process. This can result in insufficient strength development and compromised structural integrity. To mitigate this, additional measures may be required, such as using insulating materials or applying external heat sources to maintain optimal curing conditions. Furthermore, cold weather can also cause moisture to freeze on the surface of the steel formwork, leading to the formation of ice. Ice can increase the weight of the formwork and hinder the removal process. It can also cause damage to the formwork if not properly addressed. Therefore, it is essential to take preventive measures, such as using anti-freeze agents or providing adequate drainage to prevent ice buildup. Lastly, working in cold weather conditions can be challenging for construction workers. It is important to ensure that appropriate safety measures are in place, such as providing adequate insulation, heating facilities, and protective clothing to prevent workers from suffering from hypothermia or other cold-related illnesses. In conclusion, when using steel formwork in cold weather conditions, it is crucial to consider the increased risk of brittleness, the impact on concrete curing, the potential for ice formation, and the well-being of workers. By taking these special considerations into account, the use of steel formwork can still be efficient and effective in cold weather conditions.
Q:How does steel formwork help in achieving a high-quality finish?
Steel formwork helps in achieving a high-quality finish due to its ability to provide a strong and rigid structure for concrete placement. Its smooth and non-absorbent surface prevents the formation of air bubbles, resulting in a smooth and even finish. Additionally, steel formwork allows for precise and accurate shaping and alignment, ensuring the desired dimensions and contours of the final concrete product.
Q:How does steel formwork contribute to better site organization?
Steel formwork contributes to better site organization in several ways. Firstly, steel formwork is highly durable and reusable, which means it can be used multiple times on different construction projects. This eliminates the need for frequent replacement and reduces waste on site. The ability to reuse steel formwork also reduces storage space requirements, as it can be easily stacked and stored when not in use. Secondly, steel formwork is adjustable and customizable, allowing it to be easily modified to fit different shapes and sizes of concrete structures. This flexibility enables efficient use of space on site, as the formwork can be tailored to the specific requirements of each project. This ensures that the construction process is organized and streamlined, minimizing the need for additional materials or adjustments. Furthermore, steel formwork is known for its high strength and stability, which enhances site safety. Its robust structure provides a secure platform for workers to carry out their tasks, reducing the risk of accidents or injuries. This promotes a safer working environment and improves overall site organization. Steel formwork also contributes to better site organization by facilitating faster construction cycles. Its quick assembly and disassembly process allows for efficient and smooth workflow, enabling construction projects to be completed in a timely manner. This helps to minimize delays and ensures that the site is well-organized and productive. Lastly, steel formwork can be easily integrated with other construction systems and technologies. This compatibility allows for seamless coordination between different components of the project, promoting better site organization. Whether it is integrating with scaffolding systems or connecting to other structural elements, steel formwork ensures a cohesive and well-organized construction site. In conclusion, steel formwork contributes to better site organization through its durability, adjustability, strength, and compatibility with other construction systems. Its ability to be reused, customized, and integrated with other components enhances efficiency, safety, and productivity on construction sites.
Q:Can steel formwork be used in areas with limited construction equipment access?
Yes, steel formwork can be used in areas with limited construction equipment access. Steel formwork is known for its durability and strength, making it suitable for use in remote or difficult-to-access areas. Unlike other types of formwork, steel formwork does not require extensive machinery or equipment for installation. It can be easily transported and assembled manually, reducing the reliance on heavy machinery. Additionally, steel formwork is reusable, which means it can be disassembled and moved to different locations if necessary. This versatility makes steel formwork a practical choice for construction projects in areas with limited equipment access, ensuring efficient and cost-effective construction processes.
Q:How is steel formwork removed after concrete has cured?
Typically, steel formwork is taken down in a systematic manner once the concrete has fully cured. The first step involves removing any props or supports that were utilized during the pouring and curing process. These supports are usually adjustable and can be easily taken apart. Next, a thorough inspection of the formwork panels is conducted to ensure that the concrete has completely cured and is ready to be detached. Once this confirmation is made, the formwork panels are disconnected from one another, starting at the top and working downwards. To dismantle the formwork, specialized tools like formwork wedges or clamps are typically used to release the connections between the panels. These connections are usually designed to be easily disassembled, allowing for efficient removal. After the panels are disconnected, they are carefully lifted away from the cured concrete using cranes, forklifts, or other lifting equipment, depending on their size and weight. During the removal process, great care must be taken to prevent any damage to the concrete structure. The formwork panels are lifted with caution, ensuring that they do not scrape or impact the concrete surface. Additionally, any residue or debris that may have accumulated on the formwork panels during the curing process should be cleared away before lifting them. Once the steel formwork is entirely removed, it can be stored for future use or disassembled for recycling. Proper storage and maintenance of the formwork are crucial to ensure its longevity and cost-effectiveness for future construction projects. In conclusion, the systematic removal of steel formwork following concrete curing involves the careful disassembly and lifting of the formwork panels. By following these steps, the integrity of the concrete structure is maintained, while allowing for the reuse or recycling of the formwork.

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