Aluminum seat

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Loading Port:: China Main Port

Payment Terms:: TT OR LC

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Quick Details

Die size: 1100*600*390mm;
Die weight: 970 kg;
Die steel: Skd11;
Stamping materail: SS 304

Specifications:

Product Name	progressive dies, transfer dies, station dies, drawing dies ,FPC punching dies
Die steel	AISI D2/JIS SKD11/ Din1.2379, ASP-23, SKH-9,etc
Stamping Material Type	Carbon steel, hot-dipped galvanized steel, SECC, stainless steel, aluminum, brass, copper, plastic, rubber, FPC(flexible printed circuit) etc.
Stamping Material Thickness	0.1mm-12mm
Precision	Tolerance +/- 0.02~0.05 mm
Lead time	Depending on individual products. Normally from 35 to 60 days for T1 sample
Quality Assurance	ISO certificated factory, Application of TS16949
Surface Finish	electroplating, Powder coating, Conversion, Passivation , Anodize, Alodine, Electrophoresis, etc.
Measuring Instruments	3D CMM, Hardness Meter, Projector, Digital Height , Microscope ,etc.
Equipment	CNC Machining Center, Sodick EDM, Fine Precision Grinding Machine , 40T to 600T Press Machines, etc.
Design Software	PRO/E, Auto CAD, Solid Work , UG , Master CAM, Auto form
Applications	Automotive (chassis system, seating and door system, audio systems , cooling system); Home Appliances (TV sets, cameras, air conditioners ,DVD players); Telecommunication (Antenna base, brackets, enclosures ); Fire-fighting equipment (holding plates); In-office equipments like computers, copiers and printers, etc.

Q: What are the design considerations for steel storage tanks?: Some design considerations for steel storage tanks include selecting the appropriate steel grade and thickness to ensure structural integrity and prevent corrosion, considering the tank's capacity and dimensions to meet storage requirements, incorporating proper venting and drainage systems to prevent pressure build-up and potential leaks, and considering the tank's location and potential environmental impacts to ensure compliance with regulations and safety standards. Additionally, factors such as seismic design, access for maintenance and inspection, and compatibility with storage contents should also be taken into account during the design process.

Q: What are the common challenges faced in steel structure construction?: Some common challenges faced in steel structure construction include: 1. Design complexity: Steel structures often require intricate designs to meet specific requirements, which can be challenging to create and implement effectively. 2. Material handling and transportation: Steel is heavy and requires specialized equipment for handling and transportation, which can be costly and time-consuming. 3. Safety concerns: Working with steel involves various safety risks, including falls, handling heavy materials, and working at heights. Ensuring proper safety measures and training is essential to mitigate these risks. 4. Precision and accuracy: Steel structures require precise measurements and accurate fabrication to ensure proper fit and alignment. Any errors can lead to costly rework and delays. 5. Welding and connections: Proper welding techniques and strong connections are crucial for the integrity and stability of steel structures. Ensuring proper welding procedures and inspections can be challenging. 6. Weather conditions: Construction projects are susceptible to weather conditions, and steel structures are no exception. Extreme temperatures, high winds, and heavy rainfall can impact the construction process and require additional precautions. 7. Cost and budget management: Steel structures can be expensive to construct, and managing costs and staying within budget can be a challenge. Monitoring material costs, labor expenses, and any unforeseen circumstances is crucial. 8. Project management and coordination: Coordinating various stakeholders, including architects, engineers, contractors, and suppliers, is essential for the successful completion of a steel structure project. Effective project management and communication are vital to overcome challenges and ensure smooth progress.

Q: How are steel structures fabricated and assembled?: Steel structures are fabricated and assembled through a systematic process. First, the steel components are cut, drilled, and shaped according to the design specifications. Then, these components are welded or bolted together to form the framework of the structure. Once the framework is complete, additional elements such as floors, walls, and roofs are added. Finally, the structure is inspected for quality and safety before being transported to the construction site where it is assembled and anchored to the foundation.

Q: How do steel structures perform in terms of indoor environmental quality and occupant comfort?: Steel structures can perform well in terms of indoor environmental quality and occupant comfort. Steel is a durable and reliable material that can provide good thermal performance, allowing for efficient heating and cooling. Additionally, steel structures can easily incorporate insulation, soundproofing, and ventilation systems, contributing to improved indoor air quality and comfort levels. With proper design and construction techniques, steel structures can create a comfortable and healthy environment for occupants.

Q: How do steel structures perform in earthquake-prone areas?: Steel structures excel in earthquake-prone regions due to their inherent strength, flexibility, and ductility. The material itself can endure immense stress and has an excellent strength-to-weight ratio, rendering it perfect for enduring the seismic forces unleashed during an earthquake. One of the main benefits of steel structures lies in their capacity to bend and deform without collapsing. This flexibility enables them to absorb and disperse seismic energy, lessening the impact on the building and its occupants. The ductility of steel further allows it to undergo significant deformations without compromising its ability to bear loads, thereby ensuring the overall integrity of the structure. Furthermore, steel structures can incorporate redundancies and bracing systems that enhance their seismic performance. Moment-resisting frames, diagonal bracing, and other structural elements are employed to distribute seismic forces and minimize damage. With these design features, steel structures can withstand powerful earthquakes, minimizing the risk of collapse and ensuring the safety of those inside. Additionally, steel structures can be prefabricated offsite, enabling precise construction and stringent quality control. This guarantees that buildings are constructed to the highest standards, which is particularly critical in earthquake-prone regions where structural integrity is paramount. In conclusion, steel structures have an impressive track record in earthquake-prone areas. Their strength, flexibility, and ductility establish them as a dependable choice for ensuring the safety and resilience of buildings in seismic zones.

Q: What are the advantages of using steel in structures?: Using steel in structures offers several benefits. To begin with, steel is an incredibly strong material, making it ideal for supporting heavy loads and withstanding external forces like wind and earthquakes. This strength allows for the construction of high-rise buildings and large-span structures. Moreover, steel is a flexible material that can be easily manipulated and shaped into various forms, allowing for innovative and creative designs. This flexibility empowers architects and engineers to construct structures that are both unique and visually pleasing. In addition, steel is highly durable and resistant to corrosion, fire, and pests. Unlike other materials like wood, steel does not decay, warp, or deteriorate over time. This durability reduces the need for frequent repairs or replacements, making it a cost-effective choice in the long term. Furthermore, steel is a sustainable material that can be recycled and reused without compromising its quality. This recycling process reduces the demand for new steel production, conserves natural resources, and minimizes waste. Lastly, steel is a time-efficient material that allows for fast and efficient construction. Due to its prefabricated nature, steel components can be manufactured in a controlled environment and then assembled on-site. This saves time and reduces construction delays, which is particularly advantageous for projects with tight schedules or in areas with limited access. Overall, the benefits of using steel in structures encompass its strength, flexibility, durability, sustainability, and time-efficiency. These qualities make it a popular choice for a wide range of construction projects, ensuring the creation of safe, resilient, and visually appealing structures.

Q: Measures to prevent rust in welded seam of steel structure: 95% pure zinc protective film can effectively resist rust and corrosion, providing years of rust protectionBecause of the strong permeability, after the protective film has been scraped, the zinc can protect the metal from corrosionRepairing damaged metal surface is effective, used for welding seam repair.

Q: What are the considerations when designing steel structures for agricultural processing plants?: When designing steel structures for agricultural processing plants, several key considerations need to be taken into account. Firstly, the structural design should accommodate the specific requirements of the processing equipment and machinery used in the agricultural industry. This involves ensuring sufficient space, load-bearing capacity, and proper integration of the equipment within the structure. Secondly, the design should consider the potential environmental factors that can affect the structure, such as weather conditions, temperature variations, and humidity levels. Steel structures in agricultural processing plants must be designed to withstand these factors to ensure durability and longevity. Another important consideration is the safety of the workers and the compliance with relevant building codes and regulations. The design should include appropriate safety measures, such as fire-resistant materials, emergency exits, and proper ventilation systems to ensure a safe working environment. Additionally, the functional layout of the processing plant should be considered to optimize workflow efficiency and minimize operational costs. This involves careful planning of spaces for processing, storage, and transportation within the structure. Lastly, the cost-effectiveness of the design is crucial. Considering the budget constraints and the economic viability of the agricultural processing plant, the steel structure design should aim to achieve an optimal balance between cost and functionality. In summary, designing steel structures for agricultural processing plants requires considerations of equipment requirements, environmental factors, safety regulations, functional layout, and cost-effectiveness.

Q: How are steel structures designed to minimize noise transmission?: Steel structures can be designed to minimize noise transmission by incorporating various techniques such as using sound-absorbing materials, adding insulation layers, implementing vibration isolation systems, and optimizing structural connections to minimize sound transmission paths.

Q: What kind of building materials are used in steel structure engineering?: Roof wall enclosure, the use of pressure plate, sandwich panels, such as color plates, accessories, wrapping, angle and doors and windows and so on.

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