• Auto-climbing Bracket ACB100 & ACB50 for formwork and scaffolding system System 1
  • Auto-climbing Bracket ACB100 & ACB50 for formwork and scaffolding system System 2
Auto-climbing Bracket ACB100 & ACB50 for formwork and scaffolding system

Auto-climbing Bracket ACB100 & ACB50 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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Auto-climbing Bracket ACB100 & ACB50


The power of the auto-climbing formwork is the hydraulic system, which includes the oil cylinder

and two commutators. The commutators can control the climbing of climbing rail and the bracket.

The steel rail and the bracket can inter-climbing, so the whole system will climb up steadily.

Cranes are not needed during the construction. It’s easy to operate, highly efficient and safe. It’s

the best choice for the construction of high buildings and bridges.

There are mainly two types of standard auto-climbing brackets, ACB-50 and ACB-100, the figure

means the push power of cylinder with unit of KN.


Characteristics:

◆ Perfect load bearing anchor system

Anchor system is the most important supporting part. The system is made of five parts shown

below. Thereinto, tensile bolt, V-climbing cone and washer can be taken out for reusing after the

concrete pouring finished.There are two kinds of anchor systems,A & B. A is matched with single

anchor shoe and B is matched with double anchor shoe.

◆ Crane-independent

Crane-independent forming, striking and climbing speeds up the work procedures on the

construction site and also makes them independent of each other. This means the planned

sequences can be maintained along with guaranteeing high productivity levels. The crane can

therefore be used for other tasks.

Hydraulic system is mainly made of two commutators,

oil cylinder and power distribution system.The

commutators can control the climbing of climbing rail

and bracket.

◆ High bearing capacity and safe

The stable working platforms are able to carry large loads, e.g. the storage of reinforcing steel

for the next climbing section. Generously-sized working platforms, the well thought-out design for

handling very high wind loads and the patented control function of the climbing mechanism are

some of the special details contained within the comprehensive safety concept.

◆ Platforms adjusted to suit the angle of inclination

The horizontal working areas thus created provide safe and comfortable conditions for

reinforcement work, shuttering and striking, concreting and finishing.

◆ The ACB formwork system can climb not only vertically but also slantways, the largest angle is

18 degrees.

◆ The system can climb up wholly or separately. The climbing process is steady, synchronous

and safe.

◆ The bracket will not fall to the ground until the construction is finished, the field will be saved

and the impacting breakage will be reduced (especially the panel).

◆ The system will furnish omnidirectional platform, the construction organizations don’t need to

set up additional operation platform.

◆ The error of structure construction is small and easy to correct.

◆ The climbing speed is fast, the construction course will be quickened.

◆ The formwork can climb itself and cleaning work can be done in the same situs , the used times

of tower crane will be greatly reduced.


Q:Are there any specific design considerations for steel formwork construction?
Yes, there are several specific design considerations for steel formwork construction. Firstly, the formwork should be designed to withstand the weight of the concrete and the pressure exerted during pouring. It should be structurally strong and rigid to prevent any deformation or collapse. Additionally, the formwork design should allow for easy installation, dismantling, and reusability, as steel formwork is often used in repetitive construction projects. Special attention should be given to the joints and connections to ensure stability and prevent leakage. Finally, proper surface finish and alignment should be considered to achieve the desired concrete finish.
Q:What are the common cost implications of using steel formwork in a construction project?
Using steel formwork in a construction project can have several cost implications, both positive and negative. One of the common cost implications of using steel formwork is the higher initial investment required compared to other types of formwork materials such as timber or aluminum. Steel formwork is typically more expensive to purchase or rent upfront, which can increase the project's initial costs. However, it is important to consider the long-term benefits of steel formwork, as its durability and reusability can offset these initial expenses. Another cost implication of using steel formwork is the reduction in labor and material costs. Steel formwork is known for its sturdiness and ability to support heavy loads, allowing for larger spans and heights to be achieved with fewer supports. This means that less labor and material are required for support structures, resulting in potential cost savings. Additionally, using steel formwork can lead to increased construction speed and efficiency, which can translate into cost savings. Steel formwork systems are designed for easy assembly and disassembly, allowing for faster construction cycles. This can help reduce labor costs and overall project duration, minimizing the impact of inflation and other potential cost escalations. Moreover, steel formwork's durability and reusability can contribute to long-term cost savings. Unlike timber or plywood formwork, steel formwork can withstand multiple uses without significant wear and tear. This extends its lifespan and reduces the need for frequent replacements or repairs, saving money on material costs in the long run. However, it is important to note that steel formwork may require additional costs for transportation and storage. Steel formwork is heavier and bulkier than other materials, which may increase transportation costs. Additionally, proper storage and maintenance are crucial to ensure the longevity of steel formwork, which may involve additional expenses for cleaning, rust prevention, and storage facilities. In conclusion, while there may be higher initial costs associated with using steel formwork in a construction project, the long-term benefits of durability, reusability, reduced labor, and increased construction speed can outweigh these expenses. Careful consideration of the specific project requirements, budget, and timeline is necessary to determine if the cost implications of using steel formwork are favorable for a particular construction project.
Q:How does steel formwork contribute to the overall cost of concrete construction?
Steel formwork can significantly contribute to the overall cost of concrete construction due to its initial higher cost compared to other formwork materials such as wood or plastic. However, it offers various advantages such as durability, reusability, and the ability to withstand higher loads, resulting in reduced labor and material costs in the long run. Moreover, steel formwork provides better quality finishes, faster construction time, and improved safety on-site, which can lead to overall cost savings and enhanced project efficiency.
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 prevent concrete segregation during pouring?
Steel formwork prevents concrete segregation during pouring by providing strong and rigid support to the concrete mixture. It holds the concrete in place, preventing it from separating into its individual components, such as sand, aggregates, and cement. The steel formwork also helps in controlling the flow of concrete, ensuring that it is evenly distributed throughout the structure, reducing the chances of segregation.
Q:How is steel formwork disassembled?
Steel formwork is typically disassembled using a systematic approach to ensure safe and efficient removal. The process involves several steps: 1. Inspection: Before disassembling the steel formwork, it is crucial to inspect the structure for any signs of damage or wear. This helps identify any potential hazards and allows for necessary repairs or replacements before starting the disassembly process. 2. Removal of accessories: Start by removing any accessories attached to the steel formwork, such as scaffolding, support beams, or tie rods. These accessories are often essential for the stability of the formwork system, so their removal should be done carefully and in a controlled manner. 3. Removing concrete debris: Next, remove any concrete debris or remnants that may have adhered to the steel formwork. This can be done using tools like hammers, chisels, or wire brushes. Proper cleaning of the formwork ensures smooth disassembly and prevents any future complications. 4. Dismantling panels: Begin dismantling the steel formwork panels one by one. This is typically done by removing the connecting pins, bolts, or screws that hold the panels together. The order of disassembly should follow the reverse order of the assembly process, starting from the top and working downwards. 5. Handling and storage: As each panel is disassembled, it should be carefully handled to prevent any damage or injury. Once disassembled, the panels should be properly labeled and stored in a designated area to ensure easy retrieval for future use or transportation. 6. Post-disassembly inspection: After the steel formwork has been completely disassembled, it is important to conduct a final inspection. This allows for the identification of any damaged or worn-out components that may require repairs or replacement before the next use. Overall, the disassembly process of steel formwork requires careful planning, attention to detail, and adherence to safety guidelines. Following these steps ensures the proper removal of the formwork while maintaining the integrity of the structure and ensuring the safety of workers involved.
Q:What are the considerations when designing steel formwork for foundations?
When designing steel formwork for foundations, there are several important considerations that need to be taken into account. Firstly, the load-bearing capacity of the formwork needs to be carefully calculated and designed to ensure it can support the weight of the concrete being poured. The formwork must be able to withstand the pressure and weight of the liquid concrete without deforming or collapsing. The strength and thickness of the steel used for the formwork will play a crucial role in determining its load-bearing capacity. Another consideration is the shape and size of the foundation. The formwork needs to be designed to accurately replicate the desired shape and dimensions of the foundation. This requires careful planning and measurement to ensure the formwork is properly aligned and positioned before pouring the concrete. Any inaccuracies in the formwork can result in a foundation that is not level or properly aligned, which can compromise the structural integrity of the entire building. Furthermore, the formwork needs to be designed with the ease of installation and removal in mind. Steel formwork systems that are modular or adjustable can greatly improve the efficiency of the construction process. This allows for easy assembly and disassembly of the formwork, reducing labor and time requirements. Additionally, provisions should be made for easy access to the foundation for any necessary inspections or repairs during and after construction. Lastly, the durability and longevity of the steel formwork should be considered. Steel is known for its strength and durability, but precautions should still be taken to protect the formwork from environmental factors such as corrosion. Applying protective coatings or using galvanized steel can help prevent rust and extend the lifespan of the formwork. In summary, when designing steel formwork for foundations, considerations such as load-bearing capacity, accuracy of shape and size, ease of installation and removal, and durability are vital to ensure a successful and structurally sound foundation.
Q:How does steel formwork contribute to the overall efficiency of construction processes?
Steel formwork contributes to the overall efficiency of construction processes in several ways. Firstly, steel formwork is durable and long-lasting, allowing it to be reused multiple times on different construction projects. This reduces the need for frequent replacements, saving both time and money. Additionally, steel formwork can be easily assembled and disassembled, making it quick to set up and dismantle on construction sites. This saves valuable time during the construction process. Furthermore, steel formwork provides high-quality finishes to concrete surfaces. Its smooth and even surface ensures that the concrete is poured and set accurately, resulting in a well-finished product. This eliminates the need for additional finishing work, reducing labor costs and time. The stability and rigidity of steel formwork also prevent any deformation or movement during the pouring and setting of concrete, leading to precise and consistent results. Steel formwork also offers flexibility in design. Its ability to be easily customized and adjusted to different shapes and sizes allows for versatility in construction projects. This adaptability reduces the need for multiple types of formwork, streamlining the construction process. Moreover, steel formwork is resistant to weather conditions, chemicals, and moisture, ensuring its durability even in harsh environments. This resistance reduces the likelihood of damage or deterioration, minimizing the need for repairs and replacements. The longevity of steel formwork contributes to cost savings and increases the overall efficiency of construction processes. In summary, steel formwork greatly contributes to the overall efficiency of construction processes through its durability, reusability, easy assembly, high-quality finishes, flexibility in design, and resistance to weather and chemicals. These benefits save time, reduce costs, and ensure the construction project is completed efficiently and effectively.
Q:Can steel formwork be used for water retaining structures?
Yes, steel formwork can be used for water retaining structures. Steel formwork is known for its strength, durability, and ability to withstand high pressures. When properly designed and constructed, steel formwork can provide a watertight seal and effectively resist the hydrostatic pressure exerted by water. Additionally, steel formwork allows for a smooth and uniform finish, reducing the risk of water leakage. However, it is essential to ensure proper waterproofing measures are in place, such as using appropriate sealing materials and techniques, to prevent any potential water leakage or seepage through joints or connections. Regular inspection and maintenance are also necessary to ensure the long-term integrity of the water retaining structure.
Q:What are the different types of reinforcement used with steel formwork?
There are several types of reinforcement used with steel formwork in construction projects. The choice of reinforcement depends on various factors such as the load-bearing capacity required, the type of structure being built, and the environmental conditions. 1. Steel Bars: Steel bars, also known as rebars, are the most commonly used reinforcement in steel formwork. These bars are typically made of carbon steel and are available in various diameters and lengths. Steel bars provide strength and stability to the formwork, ensuring that it can withstand the applied loads. 2. Wire Mesh: Wire mesh is another widely used reinforcement in steel formwork. It is made by interweaving or welding steel wires to form a grid-like pattern. Wire mesh provides additional tensile strength to the formwork, making it more resistant to cracking and deformation. 3. Steel Fibers: Steel fibers are small, discrete fibers made of steel that are added to the concrete mix. These fibers enhance the tensile strength and ductility of the concrete, making it more resistant to cracking and improving its overall structural performance. 4. Reinforcing Plates: Reinforcing plates are flat steel plates that are used to reinforce specific areas of the formwork. These plates are typically welded or bolted to the formwork structure to provide additional strength and stability. 5. Tie Rods: Tie rods are used to secure and reinforce the formwork panels. These rods are usually made of steel and are inserted through holes in the formwork panels. They are then tightened with nuts and washers to hold the panels in place and prevent them from moving or deforming. 6. Steel Frames: Steel frames are used in larger formwork systems to provide structural support and stability. These frames are typically made of steel beams and columns and are assembled to form a rigid structure. Steel frames are commonly used in high-rise building construction and other large-scale projects. Overall, the different types of reinforcement used with steel formwork play a crucial role in ensuring the strength, stability, and durability of the formwork system. The choice of reinforcement depends on the specific requirements of the project and the desired structural performance.

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