Professional space frame manufacturer

  Space structure  fabrication can achieve rapid manufacturing. This is primarily due to the characteristics of its production method. The manufacturing process for Space structure s typically occurs in factories, where semi-finished products are produced and then transported to construction sites for installation. Therefore, its production process differs from the typical production methods of general construction projects. Specifically, the rapid manufacturing of Space structure  fabrication is mainly attributable to the following factors: 1. Factory Prefabrication: Components are manufactured in factories, enabling centralized resource allocation for batch production and enhancing efficiency. 2. Modular Design: Space structure  can be designed modularly, breaking down the entire structure into standardized sections. This approach significantly reduces on-site installation time, as modules are prefabricated in factories and require only rapid assembly upon delivery...

  The cross-sections of steel space frame components should be determined based on compressive strength and reliability calculations. To reduce the calculated length of compression members and improve reliability, measures such as adding sub-compression members and support frames can be adopted.   The connection points of plate-shaped spherical space structures   and two-shell spherical space structures   made of stainless steel mainly include cross-plate connection points, welded hollow sphere connection points, and anchor bolt sphere connection points. Cross-plate connection points are suitable for steel space structures   with channel steel components; the connection between the component and the connection plate is achieved by welding or high-strength bolts. Hollow sphere connection points and anchor bolt sphere connection points are suitable for steel space structures   with seamless steel pipe components. The connection points of single-shell spheric...

  Glass has emerged as a critical structural material thanks to breakthroughs in modern materials science and engineering. No longer merely a traditional fragile item, it now possesses remarkable strength, safety, and design potential. Below are the reasons glass can serve as structural components, along with some astonishing innovative applications. 1. Key Reasons Glass Becomes Structural (1) High-Strength Processing Technologies: Through tempering (thermal strengthening) and chemical strengthening, a powerful compressive stress layer forms on the glass surface, making its impact and bending strength several times higher than ordinary glass. Even when broken, it shatters into small particles with relatively blunt edges, reducing injury risk. (2) Composite Structures—Laminated Glass: This is the core of structural glass. Two or more glass layers are bonded under high temperature and pressure with tough PVB (polyvinyl butyral) or SGP (ion-exchange interlayer) film. Even if shattered...

 As gateways to cities, airports and transportation hubs must simultaneously meet diverse demands for ultra-large span spaces, complex curved surface designs, and intelligent operational management. With their green, low-carbon, and modular technical characteristics, space frame structures have emerged as the ideal solution for such transportation facilities, demonstrating irreplaceable advantages in enhancing functionality and intelligence. 1. Functional Requirements and Technical Adaptation Modern airport and transportation hub designs confront three core challenges: (1) Creating column-free spaces spanning hundreds of meters to accommodate tens of thousands of passengers during peak hours; (2) Integrating complex electromechanical systems like baggage sorting and rail transit installations; (3) Ensuring long-term durability and operational safety. Space structures effortlessly span over 150 meters while weighing only one-third of concrete structures, significantly reducing found...

  Steel structures are primarily composed of steel components, characterized by steel beams, steel plates, steel columns, steel trusses, and other elements; they are a major type of building structure, connected through welding, bolts, or rivets between each member or component. When damage occurs in a steel structure, it should be identified and addressed immediately. (1) Insufficient load-bearing capacity due to changes in load, overtime work, or revisions to standards and regulations; (2) Deformation, distortion, loss of functionality, or indentation of components caused by various accidents, leading to weakened cross-sections, warped members, or cracked connections; (3) Deformation, cracking, or warping of components or connections caused by temperature differences; (4) Corrosion and electrochemical corrosion caused by chemical erosion, weakening the cross-section of steel structure components; (5) Other issues including errors in design, production, or construction, as well a...

  1. Main influencing factors (1) Roof load: When the roof load is large, the grid needs to be higher to provide sufficient rigidity and stability. On the contrary, if the roof load is small, the grid height can be relatively low. (2) Span : The span of the grid is another important factor in determining its height. The larger the span, the larger the grid height usually needs to be in order to meet the requirements of rigidity and stability. (3) Plane shape and support conditions: The plane shape (such as circular, square, rectangular, etc.) and support conditions (such as peripheral support, point support, etc.) of the grid will also affect the determination of its height. For example, the height of the grid with a circular or square plane can be smaller, while the height of the grid with a narrow plane needs to be larger due to the obvious unidirectional force transmission. The height of the grid with peripheral support is usually smaller than that of the grid with point suppo...