• Auto-climbing bracket ACB-100 for formwork and scaffolding system System 1
  • Auto-climbing bracket ACB-100 for formwork and scaffolding system System 2
Auto-climbing bracket ACB-100 for formwork and scaffolding system

Auto-climbing bracket ACB-100 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:What are the different types of formwork release agents used with steel formwork?
There are primarily two types of formwork release agents used with steel formwork: barrier release agents and reactive release agents. Barrier release agents create a physical barrier between the steel formwork and the concrete, preventing adhesion. Reactive release agents, on the other hand, chemically react with the concrete to create a thin film that facilitates easy stripping of the formwork. Both types of release agents are commonly used in construction projects to ensure the smooth and efficient removal of steel formwork.
Q:How does steel formwork affect the concrete finish?
Steel formwork can have a significant impact on the concrete finish. Firstly, steel formwork provides a smoother and more uniform surface compared to other types of formwork materials such as wood or plastic. This can result in a smoother and more aesthetically pleasing concrete finish. Additionally, steel formwork provides a higher level of dimensional accuracy and stability during the concrete pouring and curing process. This means that the concrete is less likely to shrink or warp, resulting in a more precise and even finish. Furthermore, steel formwork allows for tighter joints and fewer seams, which can minimize the occurrence of surface imperfections such as cracks or air pockets. This is particularly important for achieving a high-quality finish in architectural or decorative concrete applications. Moreover, steel formwork provides better resistance to moisture and chemicals, reducing the risk of staining or discoloration on the concrete surface. It also offers a higher level of durability, ensuring that the formwork remains intact throughout the entire concrete pouring process, resulting in a smoother and more consistent finish. In summary, the use of steel formwork positively affects the concrete finish by providing a smoother surface, better dimensional accuracy, fewer surface imperfections, improved resistance to moisture and chemicals, and enhanced durability.
Q:How does steel formwork contribute to the overall efficiency of concrete placement?
The overall efficiency of concrete placement is greatly enhanced by steel formwork. Firstly, the durability of steel formwork allows it to withstand the pressure exerted by fresh concrete, ensuring that it remains intact throughout the pouring and curing process. This minimizes the need for repairs or replacements and allows the construction process to proceed smoothly without delays. In addition to its durability, steel formwork is also known for its high strength and stability. This enables the construction of larger and taller concrete structures, as the formwork can support the weight and pressure without buckling or deforming. Contractors can take advantage of this strength and stability to construct complex shapes and designs, meeting specific architectural requirements efficiently. Steel formwork also offers easy and precise assembly due to its modular nature. This allows for quick installation and dismantling, significantly reducing construction time. The standardized components ensure accurate alignment, leading to consistent and uniform concrete placement. This not only enhances efficiency but also contributes to the quality and aesthetics of the final concrete structure. Furthermore, steel formwork is reusable, unlike traditional timber formwork. This reduces material waste and saves costs as the formwork can be utilized multiple times. The ability to reuse the formwork eliminates the constant need for procurement and disposal of materials, streamlining the construction process and improving overall efficiency. Lastly, steel formwork provides a smooth finish to the concrete surface. Its rigid structure prevents any bulges or deformities, resulting in a flat and even surface. This eliminates the need for additional surface treatments, saving time and resources. The smooth finish not only enhances the aesthetic appeal but also improves the durability and longevity of the concrete structure. In conclusion, steel formwork plays a crucial role in enhancing the efficiency of concrete placement. Its durability, strength, easy assembly, reusability, and ability to provide a smooth finish make it an invaluable tool in the construction industry. Contractors can expedite the construction process, reduce material waste, and achieve high-quality concrete structures efficiently by utilizing steel formwork.
Q:Does steel formwork require special equipment for installation?
Special equipment is necessary for the installation of steel formwork. Unlike traditional wooden or plastic formwork, steel formwork is heavier and stiffer, necessitating stronger and more specialized equipment for handling and installation. Cranes, forklifts, and hoists are commonly used to lift and position the steel panels and beams during installation. In addition, specific tools like clamps, braces, and connectors are required to secure the formwork system and maintain its stability while pouring concrete. The utilization of this specialized equipment not only simplifies the installation process but also guarantees the safety and stability of the formwork structure.
Q:All I know is that prices are different
At the same time, the steel formwork concrete formwork, the concrete surface is smooth and beautiful, is a good way to die in the process of transport is not easy deformation.
Q:How does steel formwork handle concrete curing compounds and sealers?
Steel formwork is highly resistant to concrete curing compounds and sealers. Due to its non-porous surface, steel formwork prevents the penetration of these chemicals, ensuring that they do not interfere with the curing process or affect the quality of the concrete. Additionally, steel formwork is easy to clean and maintain, allowing for efficient removal of any residual compounds or sealers that may come into contact with it during construction.
Q:What are the common safety guidelines when working with steel formwork in confined spaces?
To ensure the well-being of workers involved in working with steel formwork in confined spaces, it is crucial to adhere to specific safety guidelines. Consider the following commonly recommended safety measures: 1. Thoroughly assess risks: Prior to commencing work in a confined space, it is imperative to evaluate potential hazards and risks associated with the task at hand. This evaluation should encompass the identification of dangers such as inadequate ventilation, limited access, or the presence of hazardous gases. 2. Ensure sufficient ventilation: Confined spaces often lack proper air circulation, which can result in the accumulation of toxic gases or oxygen deficiency. Before entering, verify that the area is adequately ventilated, and continuously monitor air quality throughout the task. 3. Utilize suitable personal protective equipment (PPE): Workers must always wear the appropriate PPE, which includes safety helmets, goggles, gloves, and respiratory protection as required. The specific PPE necessities may vary depending on the nature of the confined space and associated hazards. 4. Implement adequate lighting: Insufficient lighting in confined spaces can hinder visibility and compromise safety. To mitigate accidents, provide sufficient lighting to ensure clear visibility. 5. Establish proper entry and exit procedures: Clearly define entry and exit procedures for workers entering and exiting confined spaces. This should involve the use of appropriate signage, secure barriers, and the assignment of a responsible individual to monitor and control access. 6. Ensure effective communication: Establish a reliable communication system between workers inside and outside the confined space. This can be achieved through the use of two-way radios, hand signals, or other means of communication to prevent isolation and enable prompt assistance if necessary. 7. Regularly inspect equipment and formwork: Prior to commencing work, inspect the steel formwork and associated equipment for any damage or defects. Promptly address any issues to prevent accidents or structural failures. 8. Provide comprehensive training: Workers involved in working with steel formwork in confined spaces should receive thorough training on safety procedures, hazard recognition, emergency response, and proper equipment usage. Regular training updates should also be conducted to ensure workers remain knowledgeable about safety practices. 9. Establish an emergency response plan: Despite taking necessary precautions, emergencies can still occur. Develop an emergency response plan that outlines evacuation, rescue, and medical assistance procedures. Ensure all workers are familiar with the plan and conduct regular drills to practice these protocols. 10. Regularly review and update safety procedures: Continuously review and update safety procedures to incorporate new regulations, industry best practices, or lessons learned from previous incidents. Continuous improvement and monitoring of safety measures are vital to maintaining a safe working environment. Remember, working in confined spaces with steel formwork carries significant risks. By following these common safety guidelines and fostering a safety-conscious culture, the risk of accidents and injuries can be minimized, ensuring a safer working environment for all.
Q:How is steel formwork installed?
Steel formwork is installed in a systematic and efficient manner to ensure accurate and sturdy construction. The process typically involves the following steps: 1. Planning and preparation: Before installing steel formwork, careful planning and preparation are essential. This includes determining the desired shape and dimensions of the concrete structure, calculating the required amount of steel formwork panels and accessories, and ensuring all necessary tools and equipment are available. 2. Site preparation: The construction site needs to be prepared adequately. This involves clearing the area of any debris or obstacles, leveling the ground, and ensuring a solid foundation. 3. Positioning and alignment: Steel formwork panels are positioned and aligned according to the planned structure. This is done by connecting and securing the panels using various methods, such as clamps, nuts, bolts, or pins. It is crucial to ensure proper alignment and tightness to prevent any leakage or seepage of concrete. 4. Reinforcement installation: If required, steel reinforcement bars are installed within the formwork to provide additional strength and support to the concrete structure. These reinforcement bars are precisely placed according to the structural design and secured firmly to the formwork panels. 5. Formwork bracing: To ensure stability and prevent any deformation during the pouring and curing of concrete, steel formwork needs to be adequately braced. Bracing helps distribute the load evenly and maintain the desired shape of the structure. Horizontal and vertical bracing systems are used to provide the necessary support and rigidity. 6. Pouring and compacting concrete: Once the steel formwork is securely in place and braced, concrete is poured into the formwork. The concrete is then compacted using vibrators or other suitable equipment to remove any air bubbles and ensure proper adhesion and density. 7. Curing and removal: After the concrete is poured and compacted, it needs to be cured to achieve maximum strength and durability. Curing can be done by various methods, such as covering the structure with plastic sheets or water spraying. Once the concrete has sufficiently cured, the steel formwork can be removed carefully, starting from the top and gradually moving downwards. It is important to note that the installation process may vary depending on the specific project requirements, complexity of the structure, and the type of steel formwork used. Therefore, it is always advisable to consult with experienced professionals or engineers to ensure proper installation and adherence to safety standards.
Q:Can steel formwork be used for architectural concrete slabs with embedded elements?
Yes, steel formwork can be used for architectural concrete slabs with embedded elements. Steel formwork provides a strong and durable framework for pouring and shaping concrete. It allows for precise and accurate placement of embedded elements such as pipes, electrical conduits, and reinforcement bars. Steel formwork also offers the advantage of reusability, making it a cost-effective choice for construction projects. Moreover, the smooth surface of steel formwork can result in a high-quality finish for architectural concrete slabs.
Q:How does steel formwork prevent concrete leakage?
Steel formwork prevents concrete leakage by providing a strong and rigid structure that holds the concrete in place during the pouring and curing process. The steel panels are tightly connected and sealed to form a watertight barrier, preventing any leakage or seepage of the concrete.

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