• Auto Climbing bracket ACB100&ACB50 for formwork and scaffolding systems System 1
  • Auto Climbing bracket ACB100&ACB50 for formwork and scaffolding systems System 2
Auto Climbing bracket ACB100&ACB50 for formwork and scaffolding systems

Auto Climbing bracket ACB100&ACB50 for formwork and scaffolding systems

Ref Price:
get latest price
Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
50 m²
Supply Capability:
1000 m²/month

Add to My Favorites

Follow us:


OKorder Service Pledge

Quality Product, Order Online Tracking, Timely Delivery

OKorder Financial Service

Credit Rating, Credit Services, Credit Purchasing

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.


Auto Climbing bracket ACB100&ACB50 for formwork and scaffolding systems

Q: What are the standard sizes of steel formwork panels?
The standard sizes of steel formwork panels vary depending on the manufacturer and project requirements. However, commonly used sizes include 1.2 meters by 2.4 meters (4 feet by 8 feet), 1.5 meters by 3 meters (5 feet by 10 feet), and 2.4 meters by 3.6 meters (8 feet by 12 feet).
Q: What are the common challenges associated with steel formwork?
Construction projects face several common challenges when it comes to steel formwork. One of the main obstacles is the high initial cost associated with purchasing or renting steel formwork compared to other materials like wood or plastic. Although steel formwork is more durable and has a longer lifespan, smaller construction companies or projects with limited budgets may find the upfront investment prohibitive. Another issue is the weight and handling of steel formwork. Due to its heaviness, transporting, assembling, and dismantling steel formwork on-site can be challenging. This may necessitate additional labor and equipment, leading to increased construction costs. Proper installation and alignment of steel formwork also require skilled labor. Achieving the desired dimensions and finishes of concrete structures relies heavily on the accuracy and precision of the formwork. Mistakes or misalignments during setup can result in costly rework or compromised structural integrity. Maintenance and storage of steel formwork pose their own challenges. Regular cleaning and treatment are necessary to prevent rust and corrosion, particularly in humid or coastal areas. Sufficient storage space is also essential for protecting the formwork from external elements when not in use. Lastly, customization and adaptability can prove challenging with steel formwork. Unlike wood formwork, which can be cut and shaped on-site, steel formwork requires prefabrication and customization before use. Any changes in design or dimensions during the construction process may require additional time and cost to modify or replace the steel formwork components. Despite these challenges, steel formwork offers numerous advantages, including durability, reusability, and high-quality finishes. By implementing proper planning, training, and maintenance, these challenges can be effectively managed to ensure the success of construction projects.
Q: How does steel formwork accommodate for different concrete curing methods?
Due to its durability, flexibility, and ease of use, steel formwork is a versatile construction material that can accommodate various concrete curing methods. To begin with, different curing methods can be employed with steel formwork, including wet curing, dry curing, and accelerated curing. Wet curing involves maintaining the concrete's moisture and hydration for a specific period, while dry curing involves controlling the concrete's environment with low humidity. On the other hand, accelerated curing utilizes external heat sources to expedite the curing process. Steel formwork is particularly suitable for wet curing as it effectively retains moisture and prevents water loss from the concrete. The tightly fitted steel panels create a watertight enclosure that minimizes evaporation. This ensures that the concrete remains adequately hydrated during curing, promoting proper strength development and minimizing the risk of cracking or shrinkage. Likewise, steel formwork easily accommodates dry curing methods. The steel panels act as a barrier between the concrete and the surrounding environment, allowing precise control of humidity levels. This is especially beneficial in hot or dry climates, where maintaining a low humidity environment is critical for preventing premature moisture loss and ensuring proper curing. Furthermore, steel formwork is compatible with accelerated curing techniques. Its ability to withstand high temperatures makes it suitable for applications where external heat sources are used to expedite the curing process. The steel panels can withstand elevated temperatures without warping or compromising their structural integrity. Additionally, steel formwork can be easily adjusted or modified to meet specific curing requirements. The modular nature of steel formwork allows for flexibility in design and construction. By rearranging or adding steel panels, the formwork can be customized to create different shapes, sizes, or configurations. This flexibility is particularly advantageous when dealing with complex or unique concrete structures. In summary, steel formwork is a reliable choice for accommodating various concrete curing methods. Its durability, flexibility, and adaptability make it the preferred option in construction projects that require precise control over the curing process to achieve optimal concrete strength and quality.
Q: What are the common safety guidelines when working with steel formwork in hazardous areas?
To ensure the protection of workers and prevent accidents, certain safety guidelines must be adhered to when working with steel formwork in hazardous areas. Here are some commonly recommended safety guidelines: 1. Personal Protective Equipment (PPE): Workers must wear appropriate PPE, such as safety goggles, gloves, steel-toed boots, and hard hats, to safeguard themselves from potential hazards. 2. Training and Education: Adequate training on working with steel formwork and awareness of the specific hazards in the hazardous areas are essential. This includes understanding safe handling practices and emergency procedures. 3. Hazard Identification and Risk Assessment: Thoroughly assess the hazardous areas before starting work to identify potential risks and hazards. This will facilitate the implementation of suitable safety measures and controls. 4. Fall Protection: Proper fall protection measures should be in place when working at heights, including guardrails, safety harnesses, and safety nets. Workers should be trained on the correct use of fall protection equipment and systems. 5. Fire Safety: In hazardous areas, there is an increased risk of fire. Ensure the availability of fire extinguishers, train workers in their use, and have emergency evacuation plans in place. 6. Electrical Safety: Ensure proper grounding of electrical equipment or tools near the steel formwork and regularly inspect them for safety. Workers should exercise caution and avoid contact with live wires. 7. Proper Handling and Storage: Proper handling and storage of steel formwork materials are crucial to prevent injuries. This includes using appropriate lifting equipment, securely fastening the formwork, and storing it in designated areas to avoid tripping hazards. 8. Adequate Ventilation: If working in confined spaces, ensure proper ventilation to prevent the accumulation of toxic gases or fumes. Workers should be trained to recognize signs and symptoms of exposure to hazardous substances. 9. Regular Inspections and Maintenance: Regularly inspect the steel formwork and surrounding areas to identify any potential safety hazards. Promptly carry out any necessary repairs or maintenance. 10. Communication and Emergency Procedures: Establish clear communication between workers, supervisors, and other stakeholders to ensure awareness of potential hazards and emergency procedures. Regular safety meetings and drills can strengthen this communication. By adhering to these common safety guidelines, workers can minimize the risks associated with working with steel formwork in hazardous areas and create a safer working environment.
Q: How does steel formwork handle different concrete surface cleaning methods?
Concrete construction projects can benefit from the durability and versatility of steel formwork. When it comes to cleaning the concrete surface, steel formwork proves to be highly effective and adaptable. Pressure washing is a common method used to clean concrete surfaces. Steel formwork can withstand the force of high-pressure water jets without sustaining any damage. The smooth and non-porous nature of the steel formwork surface facilitates the removal of dirt, debris, and other unwanted materials. By utilizing pressure washing, a smooth and even finish can be achieved. Chemical cleaning is another technique employed for cleaning concrete surfaces. Steel formwork is resistant to the majority of chemicals commonly used for cleaning purposes. This allows for the usage of various cleaning agents to eliminate stubborn stains, oil, grease, and other contaminants from the concrete surface. The chemical cleaning process can be carried out without causing any harm or deterioration to the steel formwork. Manual cleaning methods may also be utilized in certain instances. Steel formwork can withstand manual scrubbing, brushing, or scraping without any issues. The strength and durability of steel make it suitable for manual cleaning methods, which may be necessary when dealing with tough stains or debris that cannot be easily removed through other means. In conclusion, steel formwork is an ideal choice for handling various concrete surface cleaning methods. Its resistance to pressure washing, chemical cleaning, and manual cleaning ensures that the concrete surface can be effectively cleaned without damaging the formwork. This allows for a clean and visually appealing finish while maintaining the structural integrity of the formwork.
Q: Can steel formwork be used for tunnel portals?
Yes, steel formwork can be used for tunnel portals. Steel formwork is known for its durability, strength, and flexibility, making it suitable for constructing tunnel portals. It can withstand the pressures and forces exerted during tunnel construction and provide a stable framework for pouring concrete. Additionally, steel formwork can be easily customized to meet specific design requirements, ensuring the tunnel portals are constructed accurately and efficiently.
Q: How does steel formwork affect the overall project budget and cost control?
Steel formwork can have a significant impact on the overall project budget and cost control. While it tends to have a higher initial cost compared to other formwork systems, its durability and reusability can help offset this expense in the long run. Steel formwork also allows for faster construction and requires fewer labor hours, leading to potential cost savings in terms of reduced labor costs. Additionally, its accuracy and precision help minimize material wastage, further contributing to cost control.
Q: What are the common cost implications of using steel formwork in a construction project?
The utilization of steel formwork in a construction project can result in several cost implications, both positive and negative. One of the common cost implications of employing steel formwork is the higher initial investment required in comparison to other formwork materials like timber or aluminum. Steel formwork typically entails a greater upfront purchase or rental expense, which can elevate the initial costs of the project. Nonetheless, it is crucial to take into account the long-term advantages of steel formwork, since its durability and ability to be reused can offset these initial expenditures. Another cost implication of using steel formwork is the reduction in labor and material costs. Steel formwork is renowned for its robustness and capacity to support heavy loads, permitting larger spans and heights to be accomplished with fewer supports. Consequently, less labor and material are necessary for support structures, resulting in potential cost savings. Moreover, the utilization of steel formwork can facilitate increased construction speed and efficiency, which can translate into cost savings. Steel formwork systems are designed for straightforward assembly and disassembly, enabling faster construction cycles. This can aid in diminishing labor costs and overall project duration, thereby minimizing the impact of inflation and other potential cost escalations. Furthermore, the durability and reusability of steel formwork can contribute to long-term cost savings. Unlike timber or plywood formwork, steel formwork can endure multiple uses without significant deterioration. This extends its lifespan and diminishes the need for frequent replacements or repairs, leading to financial savings on material costs in the long run. However, it is important to acknowledge that steel formwork may necessitate additional expenses for transportation and storage. Steel formwork is heavier and bulkier than alternative materials, which can augment transportation costs. Additionally, proper storage and maintenance are vital to ensure the longevity of steel formwork, which may entail supplementary expenses for cleaning, rust prevention, and storage facilities. To conclude, although there may be higher initial costs involved in employing steel formwork in a construction project, the long-term benefits of durability, reuse, reduced labor, and increased construction speed can outweigh these expenses. A thorough evaluation of the specific project requirements, budget, and timeline is necessary to ascertain whether the cost implications of using steel formwork are advantageous for a particular construction project.
Q: How does steel formwork affect the overall energy efficiency of a building?
Steel formwork can significantly affect the overall energy efficiency of a building in several ways. Firstly, steel formwork provides a robust and durable structure that can withstand high pressures, ensuring a tight and well-insulated building envelope. This prevents air leakage, reducing heat loss or gain through walls and floors, thereby improving energy efficiency. Secondly, steel formwork allows for precise construction, resulting in tighter joints and fewer gaps, which minimizes thermal bridging. Thermal bridging occurs when heat transfers through materials with high thermal conductivity, leading to energy loss. By reducing thermal bridging, steel formwork enhances insulation and reduces energy consumption. Additionally, steel formwork enables the integration of insulation materials within the construction process. Insulation can be added between the steel panels, further enhancing the energy efficiency of the building by minimizing heat transfer through the walls and floors. Furthermore, steel formwork systems often allow for the reuse of materials, reducing waste and minimizing the environmental impact of construction. This sustainable approach aligns with energy-efficient practices, as it reduces the need for new resources and lowers the embodied energy of the building. Overall, steel formwork positively impacts the energy efficiency of a building by providing a sturdy structure, minimizing thermal bridging, facilitating insulation integration, and promoting sustainable construction practices.
Q: Can steel formwork be used for both flat and sloped concrete surfaces?
Yes, steel formwork can be used for both flat and sloped concrete surfaces. Steel formwork is known for its versatility and durability, making it suitable for various types of concrete structures. It can be easily adjusted and shaped to create both flat and sloped surfaces, allowing for the construction of diverse architectural designs. Additionally, steel formwork provides excellent support and stability to the concrete during the pouring and curing process, ensuring a high-quality and uniform finish on both flat and sloped surfaces.

Send your message to us

This is not what you are looking for? Post Buying Request

Similar products

Hot products


Hot Searches