• Single-Side Climbing Bracket for  formwork and scaffolding systems System 1
  • Single-Side Climbing Bracket for  formwork and scaffolding systems System 2
Single-Side Climbing Bracket for  formwork and scaffolding systems

Single-Side Climbing Bracket 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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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: What are the different types of form ties used in steel formwork?
There are several different types of form ties used in steel formwork, each designed to serve a specific purpose and meet specific requirements. 1. Coil Ties: These ties consist of a coil rod with two to four coils, which provide flexibility and allow for easy installation and removal. Coil ties are commonly used in lighter applications where relatively low pressure is expected. 2. Flat Ties: Flat ties are typically made of steel and have flat, wide plates on both ends. They are used to connect opposite wall forms, providing stability and preventing the forms from bulging or spreading due to the pressure of the concrete. 3. She-Bolt Ties: She-bolt ties consist of a threaded rod with a she-bolt attached to one end. These ties are used to secure wall forms together, and the threaded rod allows for easy adjustment of the formwork. 4. Snap Ties: Snap ties are a popular choice for fast and efficient formwork installation. They consist of a metal rod with a button-like head on one end and a wedge on the other. The button head is inserted into the formwork, and the wedge is then driven into the button head using a hammer, creating a strong connection. 5. Cone Ties: Cone ties are similar to snap ties, but they have a cone-shaped head instead of a button head. The cone head is inserted into the formwork, and a metal wedge is driven into the cone, securing the formwork. 6. Waler Ties: Waler ties are used to connect horizontal waler beams with vertical formwork members. They provide additional strength and stability to the formwork system. 7. Loop Ties: Loop ties are made of steel wire and have loops on both ends. They are used to secure wall forms together and can be easily removed once the concrete has cured. 8. Pin and Wedge Ties: Pin and wedge ties consist of a pin and a wedge. The pin is inserted into the formwork, and the wedge is driven into the pin, creating a tight and secure connection. These are just a few examples of the different types of form ties used in steel formwork. The choice of tie will depend on factors such as the type of construction, desired strength, ease of installation, and specific project requirements.
Q: How do steel formwork systems ensure proper alignment and stability?
Various features and design elements in steel formwork systems guarantee proper alignment and stability. To begin with, high-quality steel materials are used in the construction of these systems, ensuring exceptional strength and durability. This ensures that the formwork maintains its shape and structure even under heavy loads and adverse weather conditions. Furthermore, interlocking mechanisms and connecting devices are often incorporated into steel formwork systems to securely hold the formwork panels together. These connections provide a tight and precise alignment, preventing any movement or shifting during the concrete pouring process. In addition, adjustable components such as adjustable struts or props are typically included in steel formwork systems. These components allow for easy and accurate leveling and alignment, enabling workers to fine-tune the formwork to the desired position and ensure a level and uniform concrete surface. Moreover, diagonal bracing or cross-bracing elements are commonly incorporated into steel formwork systems to provide added stability and rigidity. These bracing elements help distribute the load evenly across the formwork, minimizing any potential sagging or deformation and ensuring the stability of the structure during the concrete pouring and curing process. Lastly, steel formwork systems are highly versatile and can be customized to fit various shapes and sizes. This flexibility allows for precise alignment to the desired form, guaranteeing that the concrete structure is constructed with the utmost accuracy and stability. In conclusion, steel formwork systems ensure proper alignment and stability through the use of high-quality materials, interlocking mechanisms, adjustable components, bracing elements, and customization options. These features combine to create a reliable and robust formwork system that guarantees the accurate and stable construction of concrete structures.
Q: How does steel formwork contribute to the overall durability of the structure?
The construction industry relies on steel formwork as a crucial element that greatly enhances the durability of structures. This is primarily due to the inherent strength and durability of steel itself. Steel formwork is crafted from high-quality steel, renowned for its exceptional strength and resilience. The sturdiness of steel formwork enables it to withstand the immense pressure exerted by concrete during the pouring and curing processes. This is especially important for large-scale structures, where the load of concrete can be substantial. Steel formwork provides essential support to ensure that the concrete maintains its shape and form, preventing any deformations or cracks from occurring. Additionally, steel formwork exhibits high resistance to corrosion, a significant concern for construction materials exposed to moisture and environmental factors. This resistance to corrosion ensures that the formwork remains intact and retains its strength over time, even in harsh conditions. By preventing corrosion, steel formwork safeguards the structural integrity of the concrete by avoiding any potential damage caused by rusting or deterioration. Furthermore, steel formwork is known for its reusability, setting it apart from traditional timber formwork. Unlike timber formwork, steel formwork can be used multiple times, reducing the need for constant replacement. This not only saves costs but also minimizes waste and promotes sustainable construction practices. The ability to reuse steel formwork guarantees that the structural elements of a building remain consistently strong and durable throughout the entire construction process. Moreover, steel formwork provides a smooth surface finish to the concrete, enhancing the overall aesthetics of the structure. This smooth finish reduces the necessity for additional surface treatments, saving time and resources during construction. Additionally, it improves the durability of the structure by minimizing the risk of cracks and imperfections, which can compromise the overall integrity of the construction. In conclusion, steel formwork plays a vital role in enhancing the overall durability of structures due to its strength, corrosion resistance, reusability, and ability to provide a smooth surface finish. By providing reliable support during concrete pouring, maintaining its structural integrity over time, and enhancing the aesthetics of the building, steel formwork ensures that the structure remains durable and resilient for years to come.
Q: How does steel formwork impact the overall energy efficiency of a structure?
Steel formwork can have a significant impact on the overall energy efficiency of a structure. Firstly, steel formwork is highly durable and can be used repeatedly, reducing the need for new formwork materials for each construction project. This reduces the energy consumption associated with manufacturing and transporting formwork materials. Furthermore, steel formwork is known for its excellent thermal conductivity, which allows for efficient heat transfer. This property is particularly important in structures where energy efficiency is a priority, such as residential or commercial buildings. Efficient heat transfer can help maintain a comfortable indoor temperature, reducing the need for excessive heating or cooling, and thus minimizing energy consumption. In addition, steel formwork can contribute to the overall insulation of a structure. By using insulating materials in combination with steel formwork, a building's thermal performance can be significantly improved. This insulation helps to prevent heat loss during colder months and heat gain during warmer months, reducing the reliance on artificial heating and cooling systems. Consequently, energy consumption is reduced, leading to improved energy efficiency. Moreover, steel formwork can be designed to incorporate features that enhance natural lighting and ventilation in a structure. By allowing more natural light to enter the building, the need for artificial lighting during daylight hours is reduced, resulting in lower energy consumption. Similarly, by promoting natural ventilation, steel formwork can reduce the need for mechanical ventilation systems, further contributing to energy efficiency. Lastly, steel formwork's strength and stability allow for the construction of innovative and energy-efficient structural designs. It enables the use of larger open spaces, reducing the need for additional structural components and materials. This not only reduces construction costs but also lowers energy consumption associated with the production and transportation of these additional materials. In conclusion, steel formwork positively impacts the overall energy efficiency of a structure through its durability, thermal conductivity, insulation properties, natural lighting and ventilation features, and its ability to enable innovative structural designs. By reducing energy consumption in various ways, steel formwork contributes to the sustainability and long-term energy efficiency of a building.
Q: Are all steel plates used for beam slab prefabrication
Prefabricated components according to the number of times to determine the turnover, the same specifications of the components to reach more than 10, the general use of stereotypes steel template, the specification of the component is less, the general use of steel or steel formwork formwork
Q: Does steel formwork require any special tools for installation and removal?
Yes, steel formwork typically requires special tools for both installation and removal. Since steel formwork is heavy and rigid, it often necessitates the use of cranes, forklifts, or other lifting equipment to position the formwork panels in place. Additionally, special tools such as spanners, hammers, and wedges are commonly used to secure the formwork panels tightly together and ensure stability during concrete pouring. When it comes to removal, steel formwork usually requires the use of power tools like grinders or cutting torches to disassemble and separate the formwork from the hardened concrete. These tools are necessary to cut through any welds or bolts that hold the formwork in place. It is important to exercise caution and follow safety protocols while using these tools. Overall, due to the heavy and sturdy nature of steel formwork, special tools and equipment are typically required for both installation and removal to ensure efficient and safe execution of the formwork process.
Q: How does steel formwork affect the overall thermal performance of the building?
Steel formwork can have a significant impact on the overall thermal performance of a building. The thermal performance of a building refers to its ability to effectively regulate heat transfer between the interior and exterior environments. One key aspect of steel formwork that affects thermal performance is its conductivity. Steel is a highly conductive material, meaning it can easily transfer heat. This can result in higher heat transfer rates between the inside and outside of the building, which can lead to increased energy consumption for heating and cooling. Additionally, steel formwork can create thermal bridging. Thermal bridging occurs when there is a continuous path of high thermal conductivity, such as steel, that allows heat to bypass insulation. This can result in localized areas of heat loss or gain, reducing the overall effectiveness of insulation and compromising the thermal performance of the building. To mitigate these issues, various strategies can be employed when using steel formwork. One approach is to incorporate thermal breaks into the formwork system. Thermal breaks are insulating materials that are placed between the steel and the concrete, reducing the conductivity and minimizing thermal bridging. This helps to maintain a more consistent temperature throughout the building envelope and improves overall energy efficiency. Another strategy is to augment the insulation system by adding additional insulation layers to compensate for the heat transfer through the steel formwork. This can be done by applying insulation materials over the formwork or incorporating insulating layers within the concrete structure itself. Overall, while steel formwork can potentially have a negative impact on the thermal performance of a building, proper design considerations and the use of insulation and thermal break systems can help mitigate these effects and ensure a more energy-efficient and comfortable indoor environment.
Q: How does steel formwork improve construction site safety?
Steel formwork improves construction site safety in several ways. Firstly, steel formwork is strong and durable, providing a stable and secure structure for workers to perform their tasks. This reduces the risk of accidents or collapses that could result in injuries. Additionally, steel formwork can be easily assembled and disassembled, minimizing the time workers spend on potentially hazardous activities such as scaffolding. Moreover, steel formwork is fire-resistant, reducing the risk of fire-related incidents on construction sites. Overall, the use of steel formwork enhances construction site safety by providing a reliable and stable framework for workers to carry out their tasks efficiently and securely.
Q: Are there any specific design considerations for steel formwork systems?
Yes, there are several specific design considerations for steel formwork systems. Firstly, the design of steel formwork systems should consider the load-bearing capacity of the structure. Steel formwork systems should be designed to withstand the weight of the concrete being poured, as well as any additional loads such as workers or construction equipment. The design should ensure that the steel formwork is strong enough to support these loads without any deformation or failure. Secondly, the design of steel formwork systems should take into account the dimensional accuracy and stability requirements of the concrete structure. Steel formwork systems need to be designed with precision and accuracy to ensure that the final concrete structure meets the desired specifications. The formwork should be rigid and stable, preventing any movement or shifting during the concrete pouring and curing process. Additionally, the design of steel formwork systems should consider the ease of assembly, disassembly, and reusability. Steel formwork systems are typically assembled and disassembled multiple times throughout a construction project. Therefore, the design should allow for easy and efficient installation and removal, minimizing downtime and labor costs. Furthermore, the steel formwork should be durable and reusable, reducing the need for frequent replacement and contributing to cost savings. Lastly, the design of steel formwork systems should consider safety aspects. The formwork should be designed to provide a safe working environment for construction workers. This includes features such as non-slip surfaces, guardrails, and safety barriers to prevent falls or accidents. The design should also incorporate proper access and egress points, ensuring easy movement for workers within the formwork system. In summary, specific design considerations for steel formwork systems include load-bearing capacity, dimensional accuracy, ease of assembly and reusability, and safety features. By taking these factors into account, designers can ensure the successful and efficient construction of concrete structures using steel formwork systems.
Q: Can steel formwork be used in bridge construction?
Yes, steel formwork can be used in bridge construction. Steel formwork refers to the use of steel panels or frames to create the desired shape and structure of a bridge during the construction process. Steel formwork is often preferred in bridge construction due to its durability, strength, and ability to withstand the high loads and stresses that bridges are subjected to. It is capable of withstanding heavy concrete pouring and can be reused multiple times, making it a cost-effective choice for bridge construction. Additionally, steel formwork offers flexibility in design and allows for intricate and complex shapes to be constructed, ensuring the bridge meets the desired specifications and requirements. Overall, steel formwork is a popular choice in bridge construction due to its strength, durability, reusability, and versatility.

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