Fence Materials-best price with high quality

Fence Materials-best price with high quality System 1

Fence Materials-best price with high quality System 2

Fence Materials-best price with high quality

Ref Price:

Loading Port:: China Main Port

Payment Terms:: TT OR LC

Min Order Qty:: -

Supply Capability:: -

Inquire Now

Add to My Favorites

OKorder Service Pledge

Quality Product, Order Online Tracking, Timely Delivery

OKorder Financial Service

Credit Rating, Credit Services, Credit Purchasing

Specifications

material:low carbon steel wire
surface finish: hot-dip/electro galvanized, powder coated
advantage:good oxidation resistance

Product name: pedestrian guardrail

Size: as your requirement

Process: 1>galvanizing before welding or made of galvanized steel tube and then welded

2>welding before galvanizing ( only feasible for guardrail with relatively small size)

Caricteristics: strong, durable and flexible construction

Application: used in protecting of public area, highways, airports, stations, open yards and so on

The biggest wire mesh fence factory in Anping which is the wire mesh base of China.

The company is established in 1986 and she has more than 20 years' exporting experience. We have exported to USA, Columbia, Japan, Russia, Poland, Singapore, Dammam, Dubai, Iraq ,Thailand, Burma, around 20 countries. Anping County Jinbiao Wire Mesh Fence Co., Ltd gained very good reputation all over the world.

2> Main products:

Wire mesh fence, Welded wire mesh, Sound barrier, Temporary fence, Chain link fence, Euro fence, Palisade fence, Hexagonal wire mesh, Gabion box, Barbed and Razor barbed wire

Q: What are the considerations for designing steel structures for radiation protection?: When designing steel structures for radiation protection, several considerations need to be taken into account. Firstly, the thickness and density of the steel should be chosen appropriately to provide the necessary shielding against radiation. The higher the energy of the radiation, the thicker the steel required. Additionally, the structural integrity of the steel must be ensured to withstand the weight and potential impact of any radiation shielding materials that may be added. The steel should be able to resist bending, buckling, and other forms of deformation under load. Furthermore, the design should consider factors such as accessibility for maintenance and installation of radiation shielding materials. Adequate space should be allocated for the placement and replacement of shielding components. Lastly, it is essential to consider the overall cost and feasibility of the design. The chosen steel structure should be cost-effective and practical for the intended application, while still meeting the necessary radiation protection requirements.

Q: How are steel structures designed to be resistant to impact from projectiles?: Several key design principles are employed to make steel structures resistant to impact from projectiles. The choice of materials is of utmost importance, often utilizing high-strength steel that possesses exceptional strength and toughness, preventing deformation and fracture. Furthermore, steel structures can be reinforced with carbon fiber composites or laminates to further enhance their impact resistance. The design of the structure itself plays a significant role in its ability to withstand projectile impacts. Engineers incorporate redundant load paths and robust connections into the design to distribute and dissipate the impact force, avoiding concentrated stress points that could lead to failure. Additionally, careful consideration is given to the shape and geometry of the structure to minimize weak points and excessive damage caused by projectiles. Energy absorption mechanisms are also incorporated into the design. Sacrificial elements or specially designed features are implemented to absorb and dissipate the impact energy. Sacrificial plates or sections can be strategically placed to protect critical components of the structure, while buffer zones or deformable elements help absorb and disperse the energy from the projectile. Computer-aided simulations and modeling techniques are extensively used in the design process. Advanced finite element analysis and computational fluid dynamics accurately predict the behavior of steel structures under projectile impact scenarios. This enables engineers to optimize the design, identify weaknesses, and make necessary modifications to improve impact resistance. Furthermore, rigorous testing and certification processes are conducted to ensure structural integrity and impact resistance. These tests subject the structure to various impact scenarios using projectiles of different sizes and velocities. By analyzing the results and comparing them to established standards and guidelines, engineers can validate the design and make necessary adjustments to meet required resistance levels. In conclusion, a combination of high-strength materials, robust structural design, energy absorption mechanisms, computer simulations, and rigorous testing ensures that steel structures can withstand projectile impacts and maintain their structural integrity.

Q: How are steel structures designed to withstand dynamic loading from moving vehicles?: Steel structures are designed to withstand dynamic loading from moving vehicles through careful analysis and engineering. This involves considering factors such as the weight and speed of the vehicles, the impact forces generated, and the structural response to these forces. Various design techniques, such as using appropriate structural members and connections, employing dynamic analysis methods, and incorporating safety factors, are utilized to ensure that the steel structure can withstand and safely distribute the loads imposed by moving vehicles.

Q: How is steel used in bridges?: Due to its exceptional strength and durability, steel is widely employed in the construction of bridges. It is a versatile material that can be shaped and welded into different structural components, making it ideal for supporting heavy loads. Bridges utilize steel in several ways: 1. Structural Frames: Steel is commonly used to form the main framework of a bridge, including the support beams, columns, and trusses. These components provide the necessary strength and stability to withstand the weight of vehicles, pedestrians, and other loads. 2. Bridge Deck: Steel is also employed in constructing bridge decks, which serve as the surfaces for vehicles and pedestrians. Steel plates or grating are often placed on top of the structural framework to create a stable and durable surface. These decks can be designed with various protective coatings to prevent corrosion and enhance longevity. 3. Suspension and Cable-Stayed Bridges: Steel plays a crucial role in the construction of suspension and cable-stayed bridges. These types of bridges utilize steel cables and suspenders to support the deck, enabling longer spans and more design flexibility. The strength and flexibility of steel make it an ideal material for these bridge structures. 4. Expansion Joints: Steel expansion joints are used to accommodate the thermal expansion and contraction of bridges caused by temperature fluctuations. These joints allow the bridge to expand and contract without causing damage or structural failure. 5. Reinforcement: Concrete components of bridges often incorporate steel reinforcement bars, also known as rebar, to enhance their strength and prevent cracking or crumbling. The steel reinforcement helps distribute loads evenly and increase the overall resilience of the bridge. In conclusion, steel's high strength-to-weight ratio, durability, and versatility make it an essential material in bridge construction. Its use in various bridge components ensures the structural integrity and longevity of bridges, enabling them to safely support heavy loads and withstand the test of time.

Q: What is the purpose of steel columns in structures?: The purpose of utilizing steel columns in structures is to offer vertical support and maintain structural stability. These columns are indispensable constituents that endure the weight of the structure and transmit it to the foundation. Their design is tailored to withstand compressive forces, ensuring the overall structural integrity of the edifice. Steel, as a robust and long-lasting material, permits the incorporation of tall, slender columns, thus optimizing the usable space within the structure. Moreover, steel columns exhibit exceptional resistance to fire and other external factors, rendering them a dependable choice in terms of safety. In essence, steel columns assume a pivotal role in conferring strength, stability, and durability to diverse varieties of structures, encompassing buildings, bridges, and industrial facilities.

Q: What is the maximum height a steel structure can reach?: Various factors, including the strength and stability of the steel used, the design and engineering of the structure, and the construction techniques employed, determine the maximum height that a steel structure can reach. Steel structures, in general, have the capability to achieve impressive heights due to the high tensile strength and load-bearing capacity of steel. For instance, skyscrapers are often built with steel frames that enable them to soar to remarkable heights. The Burj Khalifa in Dubai, presently the world's tallest building, stands at a height of 828 meters (2,717 feet) and is primarily composed of steel and reinforced concrete. The steel framework provides the necessary structural integrity and support to endure the immense vertical loads and lateral forces brought about by wind and seismic activity. Nevertheless, there are practical limitations to the height of steel structures. As the height increases, so does the weight of the structure, necessitating more steel and potentially resulting in diminishing returns in terms of efficiency and cost-effectiveness. Additionally, factors such as wind resistance, stability, and construction logistics become more challenging as the height increases. Therefore, while there is no absolute maximum height for a steel structure, practical considerations and engineering constraints typically play a significant role in determining the upper limits. Advances in technology and construction techniques continue to push the boundaries of what is feasible. However, at present, the height of steel structures is primarily restricted by economic feasibility, structural integrity, and safety considerations.

Q: How are steel structures designed to provide adequate ventilation and air circulation?: Steel structures are designed to provide adequate ventilation and air circulation through the incorporation of strategically placed openings such as windows, doors, and vents. Additionally, HVAC systems can be installed to further enhance air circulation within the building. The design also considers the flow of air currents and incorporates features like louvers or exhaust fans to ensure proper ventilation throughout the structure.

Q: How are steel structures used in pharmaceutical manufacturing plants?: Steel structures are widely used in pharmaceutical manufacturing plants due to their durability, strength, and versatility. These structures provide a solid framework for the various facilities and equipment required in pharmaceutical manufacturing. One primary application of steel structures in pharmaceutical plants is for the construction of manufacturing and processing areas. These areas often house heavy machinery, such as reactors, mixers, and distillation columns, which require a stable and secure foundation. Steel structures offer the necessary strength and stability to support these heavy loads, ensuring the safety and efficiency of the manufacturing process. Moreover, steel structures are used in the construction of cleanrooms and controlled environments within pharmaceutical plants. Cleanrooms are essential in pharmaceutical manufacturing to maintain strict hygiene standards and prevent contamination of products. Steel structures with specially designed wall and ceiling panels can provide airtight and sterile environments, meeting the stringent requirements of pharmaceutical production. Another significant use of steel structures in pharmaceutical manufacturing plants is for storage facilities. Pharmaceuticals require proper storage conditions, such as controlled temperature and humidity levels, to maintain their quality and potency. Steel structures can be designed with insulation and climate control systems, creating ideal storage environments for pharmaceutical products. Additionally, steel structures are used for the construction of research and development laboratories in pharmaceutical plants. These laboratories require flexible and adaptable spaces to accommodate changing research needs. Steel structures can be easily modified and expanded, allowing for future changes in laboratory layouts and equipment requirements. In summary, steel structures play a crucial role in pharmaceutical manufacturing plants by providing strong and durable frameworks for various facilities and equipment. Their versatility, strength, and ability to meet strict hygiene and storage requirements make them an ideal choice for the pharmaceutical industry.

Q: How is steel used in stadiums and sports arenas?: Due to its strength, durability, and versatility, steel is an indispensable material in the construction of stadiums and sports arenas. Its usage in these structures is particularly significant in the framework and support systems. Creating the skeletal structure of the stadium, steel beams and columns provide stability and strength to the overall building, allowing it to withstand heavy loads such as the weight of the roof, seating, and equipment. This ensures the safety of both spectators and athletes. Additionally, steel is utilized in the construction of the roof and canopies of stadiums. Its lightweight nature allows for the creation of large, open-span structures, providing unobstructed views for spectators. Not only are steel roofing systems aesthetically appealing, but they also offer weather protection, enabling events to take place regardless of rain or intense sunlight. Apart from the framework and roof, steel finds its way into various other components within stadiums and sports arenas. It is commonly used in the fabrication of stairs, handrails, and walkways, providing spectators with safe and sturdy access throughout the facility. Steel is also employed in the construction of seating areas, creating grandstands and bleachers capable of accommodating thousands of people. Furthermore, steel plays a role in the production of sports equipment, such as goalposts, basketball hoops, and fencing. Its strength and durability make it ideal for these applications, ensuring that the equipment can endure intense use and remain in good condition over an extended period. In conclusion, steel is of utmost importance in the construction of stadiums and sports arenas, offering the necessary strength, durability, and versatility for these large-scale structures. Its usage spans from the framework and roof to various other components within the facility, guaranteeing the safety and comfort of both spectators and athletes.

Q: What kind of building materials are used in steel structure engineering?: Support: round steel, steel pipe, welded pipe, bushing, angle steel, etc..

Send your message to us

*Email

*TEL

*Quantity

*Unit