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

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Loading Port:: China Main Port

Payment Terms:: TT OR LC

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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 is the role of steel canopies in a structure?: Steel canopies play a crucial role in providing protection and enhancing the aesthetic appeal of a structure. They serve as a protective covering, shielding the building and its occupants from various weather elements such as rain, sun, and snow. Additionally, steel canopies can also act as architectural features, adding a visually pleasing element to the overall design of a structure.

Q: What are the common design considerations for steel canopies?: Some common design considerations for steel canopies include structural stability, weather resistance, aesthetic appeal, and functionality. The canopy must be designed to withstand wind loads, snow loads, and other environmental factors. It should also be designed to provide sufficient shade or protection from the elements. Aesthetically, the design should be visually appealing and complement the surrounding architecture. Additionally, the canopy's design should consider factors such as ease of installation, maintenance requirements, and cost-effectiveness.

Q: How are steel structures designed for different signage systems?: Steel structures for different signage systems are designed by considering factors such as the size and weight of the signage, wind load calculations, structural integrity, and aesthetic requirements. Engineers and designers analyze the specific needs and specifications of each signage system to determine the appropriate steel frame design, taking into account factors such as the type of signage, its location, and the desired visual impact. This ensures that the steel structure can safely support the signage and withstand environmental conditions while maintaining its intended purpose and appearance.

Q: How are steel structures designed for thermal expansion joints?: Steel structures are designed to accommodate thermal expansion joints through careful planning and engineering. Thermal expansion joints are necessary to allow for the natural expansion and contraction of materials due to temperature changes. Without these joints, the structural integrity of the steel can be compromised, leading to potential damage or failure. To design for thermal expansion joints, engineers consider several factors. First, they analyze the expected temperature variations in the structure's environment. This includes understanding the maximum and minimum temperatures that the steel will be exposed to. By knowing these temperature ranges, engineers can calculate the potential expansion and contraction of the steel. Next, engineers determine the type and placement of the expansion joints. There are various types of expansion joints available, such as sliding, rolling, or hinged joints. The choice of joint depends on the specific requirements of the structure and the anticipated movement due to thermal expansion. The placement of expansion joints is crucial and depends on the size and shape of the structure. Engineers must consider factors such as the length and height of the steel members, as well as the overall design of the building. Expansion joints are typically located at points of least resistance, where movement is more easily accommodated. These points can be at corners, intersections, or other areas where steel members are connected. Additionally, engineers design the steel structure to allow for the movement that occurs at expansion joints. This can include providing flexibility in the connections between steel members, using flexible materials or components, or incorporating special features like sliding supports or roller bearings. Overall, the design of steel structures for thermal expansion joints requires a comprehensive understanding of the expected temperature variations, careful placement of the joints, and appropriate design considerations to accommodate the movement caused by thermal expansion. By implementing these design principles, steel structures can effectively withstand temperature changes and maintain their structural integrity over time.

Q: What is the role of steel fencing in a structure?: The role of steel fencing in a structure is to provide security, privacy, and boundary delineation. It acts as a physical barrier to prevent unauthorized entry, protect property, and ensure the safety of individuals within the premises. Steel fencing also adds aesthetic value to the structure, enhancing its overall appearance and contributing to its design. Additionally, steel fencing is durable and requires minimal maintenance, making it a reliable and long-lasting choice for securing various types of structures.

Q: How are steel structures insulated for soundproofing?: Steel structures can be insulated for soundproofing by using various techniques. One common method is to apply acoustic materials, such as sound-absorbing panels or insulation, to the steel surfaces. These materials help absorb and dampen sound waves, reducing the transmission of noise. Additionally, adding layers of drywall or other dense materials to the steel structure can further enhance soundproofing by adding mass and blocking sound. Properly sealing any gaps or openings in the structure also helps prevent sound leakage.

Q: How do steel structures contribute to the overall acoustic performance of a building?: Steel structures can contribute to the overall acoustic performance of a building by providing a rigid and stable framework that minimizes vibration and sound transmission. The inherent strength and stiffness of steel help to reduce the transmission of airborne and impact noise, creating a quieter and more comfortable environment for occupants. Additionally, steel structures can be designed with sound insulation materials and techniques to further enhance the acoustic performance of a building.

Q: What are the guidelines for the fabrication and welding of steel structural members?: The guidelines for the fabrication and welding of steel structural members are essential to ensure the integrity, safety, and performance of the structure. These guidelines involve several key aspects that need to be considered during the fabrication and welding process. 1. Material Selection: The first step in the fabrication process is selecting the appropriate steel material for the structural members. The chosen steel should meet the required specifications, including strength, ductility, and corrosion resistance, as specified by relevant codes and standards. 2. Design and Engineering: The fabrication and welding process should strictly follow the design provided by the structural engineer. The design should include details such as dimensions, tolerances, connections, and welding requirements. It is crucial to ensure that the fabrication process adheres to these design specifications to maintain the structural integrity. 3. Cutting and Shaping: Steel structural members often require cutting and shaping to achieve the desired dimensions and shapes. Guidelines for cutting methods, such as shearing, sawing, or flame cutting, should be followed to ensure accurate and clean cuts. Additionally, appropriate tools and techniques should be used to shape the steel members according to the design requirements. 4. Welding Procedures: Welding is a critical process in the fabrication of steel structural members. It is essential to follow specific welding procedures, including the selection of appropriate welding techniques, such as arc welding or gas welding, and the use of suitable welding consumables. Welding parameters, such as heat input, current, and voltage, must be carefully controlled to ensure proper fusion and minimize distortion. 5. Weld Quality: The quality of welds is of utmost importance in steel structural fabrication. Welds should be free from defects, such as cracks, porosity, or incomplete fusion, as these can compromise the strength and durability of the structure. Non-destructive testing methods, such as visual inspection, ultrasonic testing, or radiography, may be required to assess the quality of the welds. 6. Surface Preparation and Coating: Before welding, proper surface preparation is necessary to ensure good weld quality. This involves removing any contaminants, such as rust, oil, or paint, from the steel surface. The use of suitable cleaning methods, such as grinding or sandblasting, is essential to achieve proper adhesion and prevent defects in the weld. Additionally, appropriate coating systems should be applied to protect the steel members from corrosion. 7. Inspection and Quality Control: Regular inspection and quality control measures should be implemented throughout the fabrication process. This may involve visual inspections, dimensional checks, and non-destructive testing to ensure compliance with the specified requirements. Any deviations or defects should be addressed promptly to maintain the structural integrity of the members. Adhering to these guidelines is crucial for the successful fabrication and welding of steel structural members. By following these principles, the resulting structure will be safe, durable, and capable of withstanding the intended loads and environmental conditions.

Q: How do steel structures provide resistance against vibration-induced fatigue?: Resistance against vibration-induced fatigue is achieved by steel structures through a combination of their inherent material properties and design considerations. Firstly, steel possesses exceptional strength and stiffness characteristics, making it an optimal material for enduring dynamic forces and vibrations. Its high modulus of elasticity enables it to deform elastically under load and return to its original shape once the load is removed, effectively absorbing and dissipating energy generated by vibrations and diminishing the risk of fatigue failure. Moreover, steel structures are meticulously designed to possess adequate damping characteristics, which refers to their capacity to dissipate vibrational energy. This is achieved through the implementation of various techniques, such as the inclusion of damping materials or the integration of structural elements that possess inherent damping properties. By efficiently dissipating energy, damping reduces the magnitude and duration of vibrations, thereby minimizing the potential for fatigue damage. Furthermore, steel structures are designed with appropriate stiffness and rigidity to mitigate resonance effects. Resonance arises when the frequency of external vibrations aligns with the natural frequency of a structure, leading to amplified vibrations and potential fatigue failure. To address this issue, structures are designed with distinct natural frequencies or damping elements are introduced to significantly decrease the risk of resonance-induced fatigue. Additionally, the implementation of proper design practices, such as ensuring adequate structural support, reducing stress concentrations, and utilizing fatigue-resistant details and connections, is pivotal in the prevention of fatigue failure. These design considerations evenly distribute stresses throughout the structure, reducing the likelihood of stress concentrations that could lead to fatigue cracks. To summarize, steel structures effectively resist vibration-induced fatigue through their material properties, such as strength and elasticity, as well as through design considerations, including damping, resonance avoidance, and fatigue-resistant details. The incorporation of these factors into the design and construction of steel structures guarantees long-term durability and resistance against vibration-induced fatigue.

Q: How are steel structures designed for exhibition halls and convention centers?: Steel structures for exhibition halls and convention centers are typically designed with a combination of factors in mind. Firstly, the design takes into consideration the specific requirements and dimensions of the space, ensuring maximum functionality and flexibility for various exhibition and convention activities. Secondly, the structural design focuses on the load-bearing capacity of the steel to accommodate large spans and heavy loads, allowing for the creation of open and spacious areas. Additionally, the design also considers aesthetics and provides architectural features that enhance the overall visual appeal of the space. Lastly, safety measures are incorporated into the design to ensure the structural integrity and meet building codes and regulations.

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