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

Single Side Climbing Bracket 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: What are the different safety guidelines for dismantling steel formwork?
To ensure the protection of workers and prevent accidents, it is important to follow several important safety guidelines when dismantling steel formwork. These guidelines are as follows: 1. Personal Protective Equipment (PPE): Workers involved in the dismantling process must wear appropriate PPE, including safety goggles or glasses, gloves, hard hats, and steel-toed boots. This will safeguard them against potential hazards such as falling debris or sharp edges. 2. Training and Competency: Only individuals who have received proper training and are competent should be assigned to dismantle steel formwork. They should have a thorough understanding of the dismantling process and be aware of the potential risks involved. 3. Safe Work Area: Before commencing the dismantling process, it is necessary to adequately prepare the work area. This involves removing any obstructions or hazards, ensuring a stable and level ground, and demarcating the area to prevent unauthorized access. 4. Tools and Equipment: Workers should utilize appropriate tools and equipment for the dismantling process. This may include wrenches, hammers, cutting tools, and lifting equipment. Tools should be regularly inspected for damage or defects and replaced if necessary. 5. Structural Stability: Prior to dismantling any part of the formwork, workers must ensure that the structure is stable and secure. Temporary supports or bracing may need to be used to prevent any collapse or movement during the dismantling process. 6. Sequential Dismantling: The dismantling of steel formwork should be carried out in a sequential manner, starting from the top and working downwards. This helps maintain the stability of the structure and minimizes the risk of uncontrolled collapses. 7. Controlled Lowering: When dismantling larger steel formwork components, such as panels or beams, they should be lowered in a controlled manner using appropriate lifting equipment. This prevents sudden movements or drops that could cause injuries or damage. 8. Communication and Coordination: Clear communication and coordination between workers involved in the dismantling process are crucial to ensuring everyone's safety. This includes using hand signals, verbal communication, and adhering to a pre-determined plan or procedure. 9. Regular Inspection: Regular inspection of the steel formwork during the dismantling process is important to identify any signs of damage, corrosion, or structural defects. Any issues should be immediately reported and appropriate actions should be taken to address them. 10. Emergency Procedures: Workers should be familiar with emergency procedures in case of accidents or unexpected events. This includes knowing the location of emergency exits, fire extinguishers, and first aid kits, as well as understanding how to respond to incidents such as a collapse or injury. By adhering to these safety guidelines, the risk of accidents and injuries can be significantly reduced during the dismantling of steel formwork. It is crucial to prioritize the safety of workers and ensure that proper precautions are taken at all times.
Q: What are the common quality control measures for steel formwork systems?
Some common quality control measures for steel formwork systems include conducting regular inspections of the formwork components for any signs of damage or wear, verifying the accuracy of dimensions and alignments, ensuring proper installation and alignment of formwork components, conducting load tests to ensure the formwork system can withstand the required loads, and monitoring the concrete pouring process to ensure proper placement and consolidation. Additionally, adherence to relevant industry standards and guidelines, as well as proper documentation and record-keeping, are also important quality control measures for steel formwork systems.
Q: Can steel formwork be used for tunnel construction projects?
Yes, steel formwork can be used for tunnel construction projects. Steel formwork is highly durable and can withstand the pressure and forces exerted during tunnel construction. It provides a strong and stable structure for pouring concrete and creating the tunnel walls. Steel formwork is also reusable, making it a cost-effective option for tunnel construction projects. Additionally, steel formwork can be easily customized to meet the specific requirements of the tunnel design, allowing for efficient and precise construction. Overall, steel formwork is a suitable choice for tunnel construction projects due to its strength, durability, and flexibility.
Q: I was engaged in the patent agency, the two days of receipt of a patent application on the bridge, it is a drawing section map, the other nothing, no label no text, I am on mechanical, civil engineering drawings and utterly ignorant of ah, so simple, later on the Internet for a long time and recall ratio of patent it is unclear whether the drawings, sections of the box girder template, now the goal is clear, but a box girder template knowledge I don't know much about the Internet, did not find out what things, patent is only a few patents, I want to know more about the box girder and box girder template for example, the box girder template with cast-in-place prefabricated, full steel structure, steel wood structure, the hydraulic support system, but also ordinary (the ordinary I don't know what), etc. So, anyway, more detailed information as possible, thank you ~ ~ no more, I don't mind ah, not much, have a point with the province oh
It also does a patent content, I think he just give you a map, is estimated to have worried about this patent is people steal it.
Q: How does steel formwork handle moisture and humidity?
Steel formwork is highly resistant to moisture and humidity due to its inherent properties and effective protective measures. The steel used in formwork construction is typically treated with anti-corrosion coatings, such as galvanization or epoxy paint, which create a barrier against moisture penetration. These coatings protect the steel from the corrosive effects of water, preventing rust formation and structural degradation. Additionally, steel formwork systems are designed with tight joints and connections to ensure minimal water ingress. This reduces the risk of moisture accumulation within the formwork, which could potentially weaken the structure or affect the quality of the concrete. Furthermore, steel formwork is non-absorbent, meaning it does not absorb water or humidity. This characteristic prevents swelling, warping, or distortion of the formwork due to moisture exposure. It also ensures consistent and accurate dimensions of the formwork, resulting in precise concrete shapes and finishes. In cases where steel formwork is exposed to high levels of moisture or humidity, such as in marine or coastal environments, additional protective measures can be taken. These may include applying specialized coatings or using stainless steel formwork, which offers superior resistance to corrosion and moisture. Overall, steel formwork is well-suited for handling moisture and humidity. Its resistance to corrosion, non-absorbent nature, and ability to maintain structural integrity even in challenging environmental conditions make it a reliable and durable choice for construction projects.
Q: What are the considerations when designing steel formwork for high-rise buildings?
When designing steel formwork for high-rise buildings, it is important to consider several key factors: 1. Load-bearing capacity: High-rise buildings experience significant vertical and lateral loads. Therefore, the steel formwork must be able to support the weight of the concrete and any additional loads, such as equipment or workers. 2. Structural stability: The design of the steel formwork should ensure structural stability during the construction process. This involves considering factors like building height, wind loads, and the possibility of earthquakes. Proper bracing and reinforcement are necessary to maintain formwork stability. 3. Durability: High-rise buildings often have longer construction periods, so the formwork must be able to withstand prolonged exposure to concrete, weather conditions, and repetitive use. To enhance durability, the steel formwork should be designed with corrosion-resistant materials and protective coatings. 4. Flexibility and adaptability: High-rise buildings often have complex architectural designs and irregular shapes. Therefore, the formwork system should be flexible and adaptable to accommodate variations in geometry. This allows for efficient construction and minimizes the need for custom-made components. 5. Safety: Safety is of utmost importance when designing steel formwork for high-rise buildings. The formwork should be designed to prevent accidents and ensure the well-being of workers. Safety features such as guardrails, toe boards, and safe access points should be incorporated. 6. Ease of assembly and disassembly: Assembling and disassembling formwork for high-rise buildings can be labor-intensive and time-consuming. To streamline the construction process, the formwork system should have easy-to-use connections, standardized components, and clear assembly instructions. 7. Cost-effectiveness: High-rise construction projects often have limited budgets. Therefore, the design of the steel formwork should take into account its cost-effectiveness. This includes considering the potential for formwork reuse, minimizing the need for additional support structures, and optimizing the use of materials. By carefully considering these factors, designers can ensure that the steel formwork for high-rise buildings is strong, safe, durable, and cost-effective, enabling the successful construction of these complex structures.
Q: What is the maximum height that steel formwork can be used for?
The maximum height that steel formwork can be used for depends on several factors such as the structural design and engineering requirements of the construction project, the type of steel formwork being used, and the specific conditions of the site. Steel formwork is known for its high strength and durability, making it suitable for constructing tall structures. However, it is important to consider the weight and stability of the formwork system as it increases in height. In general, steel formwork can be used for constructing structures of varying heights, ranging from low-rise buildings to high-rise skyscrapers. The maximum height will often be determined by engineering calculations and considerations, including the weight-bearing capacity of the formwork system, the lateral stability requirements, and the ability to withstand external forces such as wind loads. For taller structures, additional support mechanisms and reinforcement may be required to ensure the stability and integrity of the formwork system. These may include the use of braces, tie rods, and other structural elements to prevent deflection and maintain the desired shape of the concrete during the pouring and curing process. It is crucial to consult with experienced structural engineers and formwork specialists to assess the specific requirements and limitations of each construction project. They will be able to determine the maximum height that steel formwork can be safely used for, taking into account all relevant factors and ensuring the structural integrity and safety of the construction process.
Q: What are the different types of reinforcements used in steel formwork?
There are various types of reinforcements used in steel formwork, including steel bars or rebars, wire mesh, steel plates, and steel fibers. These reinforcements are strategically placed within the formwork structure to enhance its strength, durability, and load-bearing capacity.
Q: Can steel formwork be used for post-tensioned concrete structures?
Yes, steel formwork can be used for post-tensioned concrete structures. Steel formwork is a versatile and durable material that can withstand the forces generated during the post-tensioning process. It provides a rigid and stable support for the concrete to be poured and allows for accurate shaping and positioning of the post-tensioned tendons. Steel formwork offers several advantages for post-tensioned concrete structures. Firstly, it helps in achieving the desired shape and dimensions of the structure by providing a strong and rigid framework. This is crucial for post-tensioned structures as the internal forces generated by the tendons can put significant pressure on the formwork. Secondly, steel formwork allows for easy and efficient installation of the post-tensioned tendons. The formwork can be designed with specific features to accommodate the tendons and their anchorages, ensuring proper placement and alignment. This is important as the tendons need to be accurately positioned to achieve the desired structural performance. Additionally, steel formwork offers good reusability and durability. It can withstand multiple pourings of concrete and can be easily dismantled and reassembled for future use. This makes it a cost-effective choice for post-tensioned concrete structures, especially for projects with repetitive elements. However, it is important to note that the design and construction of steel formwork for post-tensioned concrete structures should be carried out by experienced professionals. This ensures that the formwork can withstand the forces generated during the post-tensioning process and provides the necessary support and alignment for the tendons. Adequate consideration should also be given to factors such as formwork strength, rigidity, and anchorage points to ensure a successful post-tensioning operation. Overall, steel formwork can indeed be used for post-tensioned concrete structures, provided it is designed and constructed appropriately to handle the specific requirements of the project.
Q: Can steel formwork be used for elevated slabs?
Indeed, elevated slabs can be constructed using steel formwork. Steel formwork serves as a flexible and long-lasting choice for the construction of elevated slabs. It presents a robust and inflexible framework capable of withstanding the weight of the slab and any additional burdens. Moreover, steel formwork offers the added benefit of being reusable, thereby enabling savings in cost and enhancing efficiency in construction endeavors. Furthermore, steel formwork can be effortlessly modified and tailored to meet specific design requisites, rendering it suitable for diverse kinds of elevated slabs. In summary, due to its strength, durability, reusability, and adaptability, steel formwork stands as a dependable alternative for the construction of elevated slabs.

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