Two major methods of beam-column connections in steel structure buildings

Steel structure engineering is one of the main types of building structures, commonly used in modern construction projects. Steel's characteristics of high strength, light self-weight, good overall rigidity, and strong deformation ability make it particularly suitable for constructing large-span, super-high, and super-heavy buildings. The connections between beams and columns in steel structure workshops should be safe, reliable, and easy for manufacturing, installation, and maintenance. Generally, there are two types of connections: flexible connections and rigid connections. Let's delve into the specific methods.

For buildings with a large number of additional floors or those not suitable for directly adding floors to the original structure, a technique known as jacketed steel frame addition is applied. This method is also referred to as an exterior frame addition structure. The jacketed steel frame addition structure is mainly divided into two categories: detached and integral. The former completely separates the exterior frame from the old house, while the latter indicates that the jacketed steel frame is integrated with the old house structure.

1. Flexible Connections: The characteristic of flexible connections is that the wall panels and the steel frame of the workshop, as well as between panels, can have relative independent displacement within a specific range. This ability allows them to adapt well to deformations caused by vibrations. The construction forms of flexible connections generally include bolted hook flexible connections, angle steel hook flexible connections, and pressure bar flexible connections.

2. Rigid Connections: Rigid connections involve welding each panel to the column using steel, eliminating the need for additional steel supports. The weight of the wall panels is fully borne by the columns, requiring less steel material for connection components. However, this results in the loss of conditions for relative independent displacement between wall panels and the steel frame of the workshop. Under the influence of loads caused by vibrations and uneven settlements, walls are prone to crack and damage.

3. Treatment of Panel Joints: The treatment of panel joints first requires waterproofing and should consider the convenience of manufacturing and installation. For insulation wall panels, attention should also be paid to meeting insulation requirements. Depending on the situation, various forms can be adopted.

   Horizontal joints can be made into flat joints, concave-convex mismatch joints, tongue-and-groove joints, etc. Considering factors such as manufacturing, construction, and prevention of rainwater penetration under gravity and wind forces, mismatch joints are considered more ideal and are widely used in practice.

Steel structure engineering construction process and safety management precautions Part 2

 

Safety Management Measures

1. The project team leader or the engineering installation contractor is the first person responsible for safe construction and is fully responsible for the safe construction on site.
2. The on-site safety administrator is a full-time staff member responsible for the supervision and inspection of safe construction.
3. Strengthen the publicity of safe construction, hang slogans and warning signs in prominent positions on the construction site to remind construction workers.
4. Personnel entering the construction site must wear safety helmets.
5. Construction machinery and tools should be routinely checked before use every day, especially steel wire ropes and safety belts should undergo a performance check once a week to ensure they are in good condition.
6. During the installation process, consideration should be given to the safety protection of on-site machinery, equipment, and completed projects.

When the wind speed is 10m/s, sometimes hoisting work should stop, and when the wind speed reaches 15m/s, all work must stop.

7. Gloves must be worn when installing and handling components and plates.
8. If the steel wire rope breaks, breaks wires, and entangles during hoisting, it should be replaced immediately.
9. Special types of work require a valid certificate to work.
10. At the end of a day’s work, the installed building should be properly supported to prevent accidents.
11. Always wear protective glasses when drilling.
12. Do a good job of on-site safety protection measures, erect scaffolding as required and pass inspection before use.
13. When installing wall panels, the operation platform of each layer of the mobile scaffold used should be firmly fixed, anti-slip measures should be taken, the safety rope should be pulled, and the safety belt should be buckled.
14. The mobile scaffold has two or more pull points with the wall, and two braces are set on the outside. The brace needs to be fixed on a solid ground with bearing capacity.
15. Before moving, clear the obstacles on the road ahead, fill in the potholes, and compact the road surface before moving forward.
16. Before implementing each task, safety matters should be repeatedly explained to the installation workers.

Construction Method

For steel structure installation, first comply with the axis and foundation ground elevation of the concrete foundation, adopt the method of hoisting in parts, first hoist all steel columns, after correction and fixation, hoist steel beams in order, adjust as you hoist, then install and fix, and finally hoist the roof support and

Construction Sequence

On-site hoisting is divided into two construction units, using a 50T crane, hoisting from east to west.

Principles and Requirements of Construction Management

A. Standard operation, process standard, firm and solid, beautiful appearance, customer satisfaction, company satisfaction, one-time pass of project quality acceptance.

B. The construction quality passes the acceptance at one time. If it does not meet the acceptance standard, the project team will rectify it within a time limit, and the cost will be borne by the project team. If the rectification causes the construction period to exceed the contract stipulation and needs to bear the breach of contract responsibility, the breach of contract responsibility shall be borne by the project team.

C. If the damage of materials leads to a decline in project quality, the project team shall bear all responsibilities.

D. The specific requirements for construction quality shall be implemented in accordance with the first paragraph of Article 4.

(1) The setting out and line setting are accurate, and the pile foundation is solid and accurate. If an error occurs causing material waste and rework, the responsible person shall bear all responsibilities and deduct a minimum of 200 yuan at a time.

(2) It is required that the hoisting is vertical and parallel, the angle is accurate, the bolts are tightened, and the structure is solid. Otherwise, the responsible person shall bear all responsibilities and deduct a minimum of 200 yuan at a time.

(3) It is required that the welding is standardized, solid and beautiful, without false welding, cracks, and slag inclusion. Otherwise, a minimum deduction of 50 yuan at a time, and the responsible person shall bear the cost of rework materials. If a safety accident is caused due to poor welding, the responsible person shall bear all responsibilities.

(4) The splicing and edging are vertical and parallel and seamless, the surface is not wrinkled, the rivet nails are required to be solid and firm and arranged in a straight line, to be vertical and parallel, the spacing and tightness are consistent, and they must not be arranged in a wave shape and diagonal line. Otherwise, a minimum deduction of 50 yuan will be deducted for each discovery.

(5) It is required that the paint is brushed in place and the color difference is consistent with the main body, and the foam glue and glass glue are processed correctly. Otherwise, a minimum deduction of 20 yuan will be deducted for each discovery.

(6) At the completion of the project, it is required to clean up the ground hygiene and wash and deal with wall dirt. Otherwise, a minimum deduction of 20 yuan will be deducted for each discovery.

Preparation before Installation

A. Construction of column corner bolts;

B. Formulate installation plan and component plan, organize construction well;

C. Check that the steel structure components are delivered to the installation range in order.

Installation Construction Process

A. Steel column installation: Before hoisting, first determine the hoisting point position of the steel component, determine the binding method, take protective measures during hoisting, after the steel column is hoisted, when the column foot and the anchor bolt are about 30cm-40cm, correct it, slowly lower the hook into place, after correction, tighten the bolts, temporarily fix it and you can unhook;

B. Steel beam hoisting: Steel beam hoisting is carried out after the column is rechecked, using two-point symmetrical binding to hoist and install in place, after hoisting, when it is 10cm from the column datum surface, slowly put it in place, after adjustment and correction, fix the connection;

C. Wall purlin installation: The purlin has a small cross-section and light weight, and it is generally hoisted by one hook or multiple hooks or manual hoisting. The correction of the purlin is mainly to correct the spacing, size and its own straightness. The straightness can be checked and corrected by pulling the line or steel ruler.

Hoisting Precautions:

(I) Prevent personnel from falling from a height

1. On-site construction personnel should wear safety helmets, high-altitude operation personnel should wear safety belts, and should hang high and use low, and be tied to a safe and reliable place. On-site operation personnel should wear non-slip shoes.
2. There should be obvious signs in the hoisting work area, and a special person should be on guard. Non-hoisting site workers are strictly prohibited from entering. When the crane is working, people are strictly prohibited from standing under the lifting arm, and at the same time, people are avoided from staying within the swing radius of the crane lifting arm.
3. Ladders and hoisting operation platforms for climbing should be firm. When the crane moves the operation platform, people are strictly prohibited from standing on it.
4. During hoisting, high-altitude operation personnel should stand on the operation platform, basket, ladder for operation. When hoisting steel beams, a safety protection bracket should be added on its upper chord, and a safety steel wire rope should be pulled above the person working, so that construction personnel can safely operate on the beam chord. It is strictly forbidden to walk on unsecured components.
5. After the structure foundation is installed and the purlin is installed in place, the safety support on the beam upper chord needs to be removed. Before removing the installation support, a brown rope with a diameter of 15mm and a length of 90m is pulled on the purlin above the entire beam from the bottom of the two sides of the column to hang the safety belt, and then the safety support is allowed to be removed and the remaining purlin above is installed.
6. High-altitude operations must wear safety belts, wear insulating soft-soled shoes, and take safety measures.
7. Before it can be safely walked, the roof panel must be fully connected to the purlin, and each side is connected with other roof panels. It is absolutely forbidden to walk on partially connected or unconnected roof panels. Do not step on the edge rib of the board, the crimp near the edge of the board, and within 5 inches of the edge of the unsecured board.
8. Single-layer roof panels must not be used as work platforms. People are not allowed to stand on insulation cotton without bearing strength
9. Once it is found that the roof panel is left with oily substances, it should be wiped off immediately to prevent slipping or falling. When standing on the edge of the board, workers should always be alert to prevent dangerous situations, use safety belts, safety nets and handrails.
10. People’s hands and feet must stay away from moving heavy objects and lifting equipment. People are not allowed to stand under the hoisting objects and hoisting tools.

(II) Prevent high-altitude falling objects from hurting people

1. High-altitude operation personnel should put all kinds of tools, bolts, etc. in a special tool bag. When transferring items at high altitude, they should hang a safety rope and must not throw them casually to prevent people from being injured.
2. During hoisting, it is not allowed to stack or hang scattered objects on the components. Scattered items should be transferred up and down in a special bag.
3. The component binding must be firm, and the hoisting point should pass through the center of gravity of the component. When hoisting, it should be stable to avoid vibration or swinging during hoisting, it should be stable to avoid vibration or swinging. When the component is in place or fixed, do not untie the hoisting rigging to prevent the component from falling and injuring people.

D. For the hoisting of steel beams, due to the irregular I-beam of the steel beam, the binding point is easy to slide, so a special steel plate δ=14mm thick steel connecting plate is specially made for the hoisting suspension point, and it is tightened with the upper chord of the steel beam with bolts.

E. When hoisting components, the speed cannot be too fast, and it cannot stay in the air for too long. It is strictly forbidden to rise sharply and fall sharply to prevent components from falling off.

F. After the component is installed, check the connection and stability of each component. When the connection is indeed safe and reliable, you can unhook and unload the cable.

G. When hoisting high-altitude docking components, you need to tie the slip rope to control its direction.

H. During rainy day operations, necessary anti-slip measures should be taken, and there should be sufficient lighting for night operations.

4. It is particularly pointed out that for the unhooking and unloading of the sandwich layer during hoisting, the construction personnel should stand on a solid and reliable ladder.
5. It is strictly forbidden to throw materials from a high altitude.

(III) Requirements for lifting equipment operations:

1. During hoisting, the crane should be commanded by a special person. The commander should be in a place where the crane driver can see. He should be able to clearly see the whole process of hoisting. The hand signals of the lifting worker should be accurate, the whistle should be bright, the crane driver should concentrate, obey the command, and must not leave the post without authorization.
2. During the hoisting process, when the equipment fails and the operation is interrupted, measures must be taken for treatment, and the components must not be left in the air for a long time.
3. Hoisting operations are prohibited when the wind force is greater than 6.
4. Non-professionals are not allowed to enter the cab or operate the crane without authorization. When the crane stops working, the swing and walking mechanism should be braked.
5. Lifting equipment is not allowed to work on a slope, and it is not allowed for the crane to have too much difference in height on both sides.
6. If the site conditions are poor and the soil is loose, although the crawler crane has a walkway board for padding, the soil will become softer after rain. In order to prevent the crawler crane from tipping over during walking and hoisting, the site needs other machinery to cooperate in re-leveling and compacting to avoid accidents.

(IV) Prevent the structure from becoming unstable after hoisting

1. After the component is hoisted into place, it should be temporarily fixed or reliably connected after the initial correction. The fixed tool or other stabilizing device can be removed only after the final stabilization.
2. After the roof component is hoisted, the fixing system should be carried out in time and the roof support system should be pressed to maintain the structural stability.

Installation and Correction

A. Steel column correction: The verticality of the steel column is corrected by a theodolite, and the deviation and elevation can be corrected by a jack. After the correction is correct, it is immediately fixed with fasteners, and the base is fixed with fine stone expansive concrete after fixing;

B. Steel beam correction, the axis and verticality of the steel beam are corrected by measurement, and it is immediately fixed after correction.

Six, the installation of wall sandwich panels

1. Preparation before construction

A. Before the construction of sandwich panel enclosure, corresponding construction drawings should be formulated, and according to the design documents, organizational design should be compiled and technical training and safety production briefing should be conducted for construction personnel;

B. Check the specifications and quantities of various materials in detail according to the documents, and repair and replace damaged sandwich panels and flashing boards in time;

C. Various construction equipment should be complete and can operate normally;

D. Remove the welding slag and spatter of the purlin installation weld, and brush the anti-rust paint for anti-corrosion.

2. Sandwich panel construction process

Wall panel installation starts from one end according to the position of the purlin, the panels must be tightly bitten between the panels, and then fixed with screws; waterproof treatment should be done at the joint of the wall panel, and the sandwich panel should be installed with edge laying, edge adjustment, and edge fixing.

Seven, the installation of purlins

The thin-walled steel purlin is light in weight and can be hoisted by manpower during installation. After the installation of a unit’s steel columns and roof beams is completed, the installation of roof purlins can be carried out. The purlin is directly bolted to the purlin support plate during installation. The installation error of the purlin should be within 5mm.

Roof panel installation

1. Roof panel installation: The installation of roof panels is based on the completion of the main steel structure on site, starting from one end of the gable wall to the other end of the gable wall for construction, strictly following the construction drawings for arrangement, strictly prohibiting misplacement and omission, during the construction process, it must be installed by pulling the line, so that the slope direction of the roof panel is always vertical to the ridge, the length of the roof panel is best formed at one time, and horizontal overlap is avoided as much as possible. The roof panel should be handled lightly during manual and hoisting, and wrinkles should not be caused on the roof panel, scratches should be avoided, and the surface paint should not be damaged;
2. Installation of the ridge: Connectors should be set at the end of the roof panel. Before putting the buckle plate, sealant should be applied at the sealing place, then add the sealing strip and press it tightly. The center of the ridge is filled with broken insulation cotton, and the connection between the plates should be sealed;
3. Installation of flashing board: Understand the construction process of the flashing board before installation, cut the flashing board on the structure line according to the length, seal it with sealing glue, and the flashing board trim should be correct, firm, vertical lines, good waterproof effect.

Nine, Steel Structure Paint

1. Process flow:

Base layer treatment — Apply anti-rust paint — Scrape putty — Apply primer — Apply topcoat

Precautions:

A. For steel structure surface treatment, the anti-corrosion coating requires clear instructions in the design drawings;

B. Painting methods: spraying, brushing, rolling, and airless spraying are all possible;

C. The thickness gauge is used to measure the paint, which is generally divided into primer, intermediate paint, and topcoat.

Efficiency and Innovation: The Role of Steel Space Frames in Coal Storage Sheds for Power Plants

In the operation of power plants, coal storage sheds play a crucial role as essential facilities for coal storage. The design and structure of these sheds are critical, and steel structures and space frames have become core elements in improving efficiency and driving innovation.

As centers of energy production, power plants require a significant supply of fuel, and coal storage sheds are designed specifically for the storage and protection of coal. Coal sheds with steel structures exhibit superior durability and strength, capable of withstanding the weight of coal and varying weather conditions. This reliability ensures a stable fuel supply, sustaining the high-efficiency operation of power plants.

Space frame technology has brought revolutionary changes to the design of coal storage sheds. By utilizing lightweight yet sturdy structures, space frames create larger internal spaces, increasing the storage capacity for coal. This flexibility not only enables power plants to manage coal inventory more efficiently but also streamlines maintenance and operational processes, enhancing the overall efficiency of the energy production system.

The combination of steel structures and space frames not only enhances the functionality of coal storage sheds but also brings environmental and sustainability benefits to power plants. Steel is recyclable, and waste generated during the construction and dismantling processes is relatively minimal. This sustainable design aligns with the growing environmental concerns today, allowing power plants to play a more positive role in energy production.

In summary, the evolution of coal storage shed design reflects the relentless pursuit of efficiency and innovation in power plants. The introduction of steel structures and space frames not only improves the performance of coal storage facilities but also brings more sustainable and environmentally friendly solutions to the energy industry.

Four Policies for the Development of Steel Structures

1. To promote green construction and building energy conservation and emission reduction, and to promote the transformation and upgrading of the construction industry, the Ministry of Housing and Urban-Rural Development has approved some steel structure companies to carry out pilot projects for general contracting of housing construction. The significance of this is to broaden the market access and contracting scope of industry companies for major engineering steel structures, and it is conducive to the industry's development of green integrated building market and promoting the process of building industrialization.

2. The State Council issued the "2014-2015 Energy Conservation, Emission Reduction and Low-Carbon Development Action Plan", proposing "to focus on residential buildings, take building industrialization as the core, increase support for the production of building parts, and promote the modernization of the construction industry". The precise meaning is that the main force of building partization is steel structure buildings. Steel structures are completed as much as possible in the factory, which has a positive significance for promoting the application of steel structures in the construction field.

3. The approval of the "Green Building Evaluation Standard" as a national standard and its implementation from January 1st marks the beginning of China's green building entering the 2.0 era. Its important significance is that steel structures are one of the two building systems required to be promoted in the "Green Building Action Plan" of the State Council, and it is also the main direction of energy conservation and emission reduction in the construction industry.

4. In the "13th Five-Year Plan for the Construction Industry" of the Ministry of Housing and Urban-Rural Development, the steel structure industry and construction industry are compiled as independent chapters. Steel structures will become an important pillar of the construction industry. The significance we believe is as follows: Promoting steel structures is an important means to promote the transformation and upgrading of the construction industry and achieve the modernization of the construction industry; it is also an important guarantee to improve the seismic performance of buildings and reduce the losses caused by earthquake disasters; it is an important measure to alleviate the overcapacity of steel and form strategic reserves of steel; it is an important grasp to promote wall material innovation and drive the upgrading of traditional building materials industry.

Steel Structure Innovation: Roof Design for Industrial Coal Yards

 

In the realm of industrial architecture, innovative steel structure design breathes new vitality into the roofs of coal yards, creating a unique and efficient industrial space.

Significance of Coal Yards: Serving as an integral part of warehouses and industrial buildings, coal yards play a crucial role in storing and managing raw materials such as coal. Their rational design not only influences the efficiency of warehouse operations but also directly impacts the smooth progression of industrial production.

Steel Structures in Industrial Buildings: As the primary support system in industrial construction, steel structures provide a solid foundation for industrial spaces with their high strength and durability. In the construction of coal yards, steel structures must bear significant loads and withstand various weather conditions to ensure the stability of the roof in adverse environments.

Innovative Roof Design: Innovative roof design stands out as a highlight in the construction of coal yards. Through clever steel structure design, effective support for the roof of coal yards is achieved, adding a modern and industrial aesthetic to the entire building. The sloped design of the roof aids in efficient drainage, ensuring the interior of the coal yard remains dry.

Efficient Space Utilization: The flexibility of steel structures allows for better adaptation of roof design to the needs of coal yards, facilitating efficient space utilization. This innovative design not only increases the storage capacity of warehouses but also provides more flexibility in logistics operations.

The Future of Industrial Spaces: Steel structure innovation not only fortifies the roofs of coal yards but also lays the foundation for the future development of industrial spaces. This advanced design philosophy will continue to lead the evolution of industrial construction, offering more intelligent and efficient solutions for various industrial settings.

In conclusion, innovative steel structure design injects new energy into the roofs of coal yards, creating a robust, efficient, and aesthetically pleasing industrial space. This advanced design philosophy paves the way for a more sustainable future in industrial construction.

Skyward Fortification: A Symphony of Aircraft Hangar Maintenance Facilities and Steel Structures

 

On the stage of aviation, the orchestration of aircraft hangar maintenance facilities and steel structures not only provides robust shelter for aircraft but also showcases the exquisite technology of modern architectural engineering in aviation maintenance.

Intelligent Design of Maintenance Facilities: Aircraft hangar maintenance facilities are renowned for their intelligent design, providing a secure and reliable environment for aircraft maintenance. The clever structure not only offers spacious working areas but also ensures the safety and stability of aircraft during maintenance processes.

Sturdy Support of Steel Structures: Serving as robust supporting structures for maintenance facilities, steel structures exhibit their sturdy and durable characteristics. This special design can bear the weight of aircraft maintenance equipment and ensures the stability of the entire building under various weather conditions.

Symphony of Skyward Soaring: The collaborative innovation of aircraft hangar maintenance facilities and steel structures is like a symphony in the sky. Aircraft are securely parked in the hangar, and the steel structure of the maintenance facility provides an efficient and reliable base for aviation maintenance, allowing aircraft to soar confidently in the blue sky.

Exemplar of Modern Maintenance: This collaborative innovation elevates the design of aircraft hangar maintenance facilities and steel structures to an exemplar of modern architectural maintenance. It not only provides an ideal maintenance location for aircraft but also achieves notable success in architectural technology.

In conclusion, the collaborative innovation of aircraft hangar maintenance facilities and steel structures not only offers efficient solutions for aviation maintenance but also showcases the remarkable achievements of modern architectural engineering in ensuring flight safety. This symphonic innovation makes flying in the sky more secure and thrilling.

Steel Frames: Robust Support for Roof Structures

 

In architectural design, roof structures play a crucial role, as they not only bear various natural forces but also provide shape and stability to buildings. In this regard, steel frame technology has become an indispensable part of roof structures, offering sturdy support to constructions.

Versatility of Steel Frames: Steel frames are a versatile structural design created by connecting horizontal beams and vertical pillars to form a robust support framework. This design not only supports large-span roofs but also adapts to various architectural shapes. The flexibility of steel frames provides architects and designers with greater creative freedom, allowing them to realize complex roof designs.

Strength and Stability: Steel frame structures are renowned for their outstanding strength and stability. This makes them an ideal choice for supporting large building roofs, capable of withstanding the impact of wind, snow, and other natural forces. Steel frames not only offer long-lasting support but also reduce the maintenance requirements of roof structures, extending the lifespan of buildings.

Sustainability: Sustainability is an increasingly significant concern in today's construction industry, and steel frame structures play a vital role in this regard as well. They easily support renewable energy systems such as solar panels and rainwater collection systems, helping to reduce a building's energy consumption and environmental impact.

In summary, steel frame technology provides robust support for roof structures, offering versatility, strength, and sustainability. It has become an essential element in architectural design, providing a solid foundation for the stability and sustainability of buildings. Whether for large commercial constructions or residential projects, steel frames continue to evolve, bringing new possibilities to architectural design.

Gantry Frames: Elevating Roof Structures in Industrial Warehouses and Production Workshops

 

Gantry frames play a vital role in the roof design of industrial warehouses and production workshops. They offer exceptional support and flexibility, significantly enhancing the performance and sustainability of roof structures in these buildings.

Challenges in Industrial Warehouses and Production Workshops: Industrial warehouses and production workshops require high levels of customization to accommodate various purposes. Their roof structures must not only withstand heavy loads but also provide ample space for equipment, storage, and production lines. The application of gantry frame structures offers an ideal solution to these challenges.

Advantages of Steel Structures: Steel structures are the primary building materials used in gantry frame structures, known for their high strength and durability. These structures can support large-span roofs and exhibit excellent fire resistance and corrosion resistance, ensuring the long-term stability of roof structures.

Flexibility of Trusses: Gantry frames typically employ truss structures, which consist of interconnected horizontal beams and diagonal struts forming a supporting framework. This design provides added flexibility, allowing architects and designers to meet various customization requirements. Trusses also help reduce the self-weight of the roof structure, enhancing the sustainability of the building.

Sustainability in Industrial Roofing: Sustainability is becoming increasingly central in industrial construction. Gantry frames and steel roof structures not only offer outstanding performance but also support sustainability measures, such as solar panels and rainwater collection systems, reducing energy consumption and environmental impact.

In conclusion, gantry frame structures are uplifting the roof design of industrial warehouses and production workshops. They provide high levels of customization, exceptional performance, and sustainability, improving roof structures and minimizing environmental impact. As technology continues to advance, we can anticipate that these innovations will further shape the future of industrial roofing, providing more possibilities for the industrial sector.

Steel Space Frames: Optimizing the Future of Ore Storage

Ore storage is an indispensable part of the industrial process, and the design of warehouse facilities and roof structures plays a crucial role in this domain. The application of steel space frame technology is driving the future of ore storage, bringing increased efficiency and sustainability to the industrial sector.

Challenges in Ore Storage: Ore storage demands extensive storage space and a reliable roof structure to protect stored ore from adverse weather conditions and environmental factors. Traditional building structures may struggle to meet these challenges, making the application of steel space frame technology an ideal choice. This technology can support large-span roofs while ensuring structural stability, making ore storage facilities more dependable.

The Versatility of Warehouse Construction: Warehouse facilities must cater to multifunctional requirements, accommodating various types of ore and equipment. The application of steel space frame technology offers flexible solutions, supporting multifunctional warehouse designs. This includes large-scale ore storage, equipment storage, and sustainability measures such as the installation of solar panels on the roof.

Sustainability in Industrial Storage: Sustainability has become a key consideration in industrial storage. The application of steel space frame technology contributes to improved energy efficiency and reduced environmental impact. This sustainability is vital for the long-term operation and maintenance of industrial storage facilities, helping to reduce operational costs and enhance efficiency.

In summary, the application of steel space frame technology is optimizing the future of ore storage. It provides reliable roof structures, multifunctional warehouse designs, and sustainable solutions, bringing increased efficiency and environmental responsibility to the industrial sector. As technology continues to advance, we can expect these innovations to continue shaping industrial storage facilities, offering more possibilities for the future of industry.

Steel Structure Space Frames: Roofing Innovation for Industrial, Commercial, and Municipal Buildings

Steel structure space frame technology is an innovative solution that has gained prominence in a wide range of applications, including industrial, commercial, and municipal buildings. It has been widely adopted for roofing systems, offering outstanding design flexibility and durable solutions across these diverse sectors.

Applications in Industrial Buildings: In the realm of industrial buildings, steel structure space frame technology provides an ideal choice for large-span roof coverings. This technology finds extensive use in factories, warehouses, and manufacturing facilities. It not only supports the storage and production demands of large-scale operations but also offers flexible interior space to accommodate evolving production processes. The application of steel structure space frame technology in industrial buildings reduces construction costs, enhances sustainability, and ensures the stability of the structures.

Applications in Commercial Buildings: The diversity of commercial buildings demands innovative roofing solutions. Steel structure space frame technology offers remarkable solutions for shopping centers, office buildings, and entertainment venues. It not only allows for striking designs but also provides flexible interior layouts to meet the varied needs of commercial operations. This technology enhances the visual appeal of commercial buildings, reduces energy consumption, and creates more versatile space usage.

Applications in Municipal Buildings: Municipal buildings encompass government offices, public libraries, cultural centers, and sports arenas, among others. Steel structure space frame technology offers excellent roofing solutions for these structures. It can cater to a variety of purposes, from accommodating government departments' office spaces to hosting large-scale cultural and entertainment events. In municipal buildings, this technology creates multifunctional public spaces that enhance a city's cultural and social life.

In summary, steel structure space frame technology exhibits its versatility and applicability across industrial, commercial, and municipal buildings. Whether providing support for production facilities in industrial construction, offering diverse designs in commercial buildings, or creating multifunctional public spaces in municipal buildings, this technology has brought revolutionary innovation to the construction field. It brings more sustainability, reliability, and design freedom to buildings in these sectors, and it is poised to continue playing a pivotal role in the future of the construction industry. With ongoing technological advancements, we can expect this innovative technology to bring even more possibilities to the field of construction.