• Carbon Steel Billets Square Billets High Quality System 1
  • Carbon Steel Billets Square Billets High Quality System 2
  • Carbon Steel Billets Square Billets High Quality System 3
Carbon Steel Billets Square Billets High Quality

Carbon Steel Billets Square Billets High Quality

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
24 m.t.
Supply Capability:
24000 m.t./month

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Specifications

square steel billets 3sp & 5sp grade
1.3SP, 5SP
2.terms of payment: L/C at sight
3.size: 50~150mm
4.length: 5.8~12m

 

Specifications

 

product namesquare steel billets 3sp & 5sp grade 
main types
  1. M.S. Billets

  2. CRS Billets

  3. Special Alloy Billets

size
  • 100 X 100

  • 125 X 125

  • 150 X 150

application

1.M.S. Billets are used for rolling of TMT Re-Bars of Fe415 and Fe500 Grade and various other structural steel products.

2.CRS Billets are used fro rolling of CRS TMT Re-Bars.

3.Special Alloy Billets are used for rolling of any special grade TMT Re-Bars like Earthquake resistant TMT Re-Bars and for special grade structural steel products.

notes

We produce world class quality steel billets which meets the specific requirements of the clients

Q: What are the main challenges in the transportation of steel billets?
The main challenges in the transportation of steel billets include ensuring proper handling and securing of the heavy and bulky loads, preventing damage or deformation during loading and unloading processes, and complying with safety regulations for transporting hazardous materials. Additionally, factors such as limited availability of specialized equipment, fluctuations in fuel prices, and coordinating logistics for long-distance shipments can pose challenges for efficient and cost-effective transportation of steel billets.
Q: How do steel billets differ from steel ingots?
Steel billets and steel ingots, both intermediate forms of steel in the steel manufacturing process, have distinct differences. To begin with, the shape and size of steel billets and steel ingots vary. Steel billets are typically square or rectangular, with a cross-sectional area of roughly 36 square inches. They are long and slim, measuring approximately 6 to 12 inches in width and 1 to 12 feet in length. Conversely, steel ingots are generally larger and possess irregular shapes. Depending on the production method employed, they can be cylindrical, rectangular, or a combination of shapes. Steel ingots tend to be much larger than billets, weighing anywhere from several tons to over 100 tons. Secondly, the production process for steel billets and steel ingots also differs. Steel billets are commonly formed through continuous casting, which involves pouring molten steel into a mold and subsequently cooling and solidifying it to shape the billet. This process ensures a more precise and uniform shape, size, and composition. In contrast, steel ingots are typically produced via ingot casting, where molten steel is poured into a sizable mold and left to solidify. This method is often utilized for larger ingots, allowing for a more adaptable and flexible production process. Lastly, the purpose and usage of steel billets and steel ingots also vary. Steel billets are frequently employed as raw materials for further processing and shaping into various steel products, such as bars, rods, wire, and tubes. They serve as the initial stage in the production of finished steel goods. Conversely, steel ingots are commonly utilized for more specialized applications, such as the production of large steel components, forgings, or specialty alloys. Their larger size and irregular shape make them suitable for demanding applications of this nature. In conclusion, steel billets and steel ingots differ in terms of their shape, size, production process, and usage. While steel billets are slender, square or rectangular, and used as raw material for further processing, steel ingots are larger, possess irregular shapes, and are often employed for specialized applications.
Q: How do steel billets contribute to the manufacturing of kitchen appliances?
Kitchen appliances rely on steel billets as an essential component for their production. These semi-finished steel products, typically rectangular or square in shape, are created through continuous casting. One way in which steel billets contribute to the manufacturing of kitchen appliances is by serving as the primary raw material for various appliance components. Stoves, ovens, refrigerators, and dishwashers require a strong and durable structure, which steel billets provide. Through processes like hot rolling, forging, or extrusion, the billets are transformed into specific parts such as frames, doors, panels, and handles. Steel billets also play a vital role in ensuring the longevity and reliability of kitchen appliances. With its high tensile strength and resistance to corrosion, steel allows manufacturers to create appliances that can withstand daily use and endure for a long time. By using steel billets as the base material, kitchen appliances can handle high temperatures, heavy loads, and harsh environments without compromising their structural integrity. Moreover, steel billets contribute to the aesthetic appeal of kitchen appliances. The smooth and polished surface of steel provides an attractive and modern finish, making appliances visually appealing to consumers. Steel can also be easily manipulated to achieve different shapes and designs, allowing manufacturers to create sleek and stylish appliances that complement the overall kitchen decor. Additionally, steel billets possess excellent heat conductivity properties, which is crucial for kitchen appliances like stoves and ovens. The even distribution of heat throughout the appliance ensures efficient cooking and baking, guaranteeing that food is cooked thoroughly and evenly. In conclusion, steel billets are indispensable in the manufacturing of kitchen appliances due to their strength, durability, aesthetics, and heat conductivity properties. Without these billets, it would be challenging to produce high-quality, reliable, and visually appealing kitchen appliances that meet consumer demands.
Q: What are the different methods of steel billet surface etching?
Various industries commonly use several different methods for steel billet surface etching. These methods encompass chemical etching, electrolytic etching, and laser etching. 1. Chemical etching involves the immersion of the steel billet in a chemical solution, typically an acid, that selectively eliminates a thin layer of material from the surface. The specific chemical solution utilized depends on the etching process requirements, such as desired depth and pattern. Hydrochloric acid, nitric acid, and ferric chloride are commonly employed chemicals for steel etching. 2. Electrolytic etching entails passing an electric current through the steel billet while it is submerged in an electrolyte solution. The current facilitates a controlled dissolution of the surface metal, resulting in the desired etched pattern. Electrolytic etching provides precise control over the process and can generate intricate and detailed designs. It is often employed for marking or labeling steel billets with logos, serial numbers, or other identification marks. 3. Laser etching is a highly precise and non-contact method of surface etching. It involves the use of a laser beam to selectively remove material from the steel billet surface. Computer software directs and controls the laser beam, enabling intricate and customizable designs. Laser etching is suitable for creating permanent markings, logos, or patterns on steel billets. It finds wide application in industries such as automotive, aerospace, and electronics. Each method has its own advantages and limitations, and the choice of etching method depends on factors like the desired design, the material properties of the steel billet, and the production requirements.
Q: How do steel billets contribute to the manufacturing of automotive components?
Steel billets play a crucial role in the manufacturing of automotive components. These billets, which are semi-finished metal pieces, serve as the starting material for the production of various automotive parts. One of the main ways steel billets contribute to automotive component manufacturing is through the process of forging. Forging involves shaping the metal billets under high pressure and temperature, typically using a hammer or a press, to create the desired automotive parts. This process helps in enhancing the strength, durability, and reliability of the components, making them suitable for the demanding conditions of the automotive industry. Steel billets are also used in the production of engine components such as crankshafts, connecting rods, and piston rods. These parts require high strength and resistance to wear and tear, which are achieved by starting with high-quality steel billets. By using steel billets as the raw material, automotive manufacturers can ensure that the resulting components have the necessary mechanical properties to withstand the stresses and forces experienced by the engine during operation. Furthermore, steel billets are employed in the manufacturing of suspension components, such as control arms and stabilizer bars. These components are responsible for maintaining the stability, handling, and comfort of the vehicle. Using steel billets in their production ensures that the suspension components can withstand the heavy loads and impacts encountered on the road, providing a smooth and safe driving experience. Additionally, steel billets contribute to the manufacturing of safety-related automotive components. For instance, they are used in the production of structural components like chassis frames and body reinforcements. These components are essential for protecting the occupants in the event of a collision or impact, and steel billets provide the necessary strength and rigidity to ensure their effectiveness. In conclusion, steel billets are a vital element in the manufacturing of automotive components. They enable the production of strong, durable, and reliable parts, ensuring the overall performance, safety, and longevity of vehicles. By starting with high-quality steel billets, automotive manufacturers can meet the demanding requirements of the industry and deliver high-performance vehicles to consumers.
Q: What are the different methods of corrosion protection for steel billets?
There exists a range of techniques for safeguarding steel billets against corrosion. Several commonly employed approaches include: 1. Coating: One highly effective means of corrosion protection involves applying a protective coating to the surface of steel billets. This can be accomplished through methods such as hot-dip galvanization, painting, or the application of a protective film. The coating acts as a barrier between the steel surface and corrosive elements in the surrounding environment, preventing direct contact and reducing the likelihood of corrosion. 2. Cathodic Protection: This method revolves around creating an electrochemical reaction to shield steel billets from corrosion. Cathodic protection can be achieved by utilizing sacrificial anodes or applying an impressed current. Sacrificial anodes, typically composed of zinc or magnesium, are connected to the steel billets and corrode sacrificially instead of the steel, thereby preserving it. Impressed current systems employ an external power source to supply the necessary current for steel protection. 3. VCI (Volatile Corrosion Inhibitors): VCI entails utilizing chemicals that emit vapors to establish a protective layer on the steel surface. These chemicals impede the corrosion process by neutralizing corrosive agents or forming a protective film on the steel surface. VCI can be implemented through various means, including coating, wrapping, or inserting VCI paper or packets into the packaging of steel billets. 4. Alloying: The introduction of alloying elements into the composition of steel billets can significantly enhance their corrosion resistance. For instance, the addition of chromium or nickel can augment the stainless properties of steel, rendering it more impervious to corrosion. Alloying can be performed during the initial production of steel billets or through post-treatment processes. 5. Environmental Control: The control of the environment in which steel billets are stored or utilized is of utmost importance in preventing corrosion. This encompasses measures such as maintaining appropriate humidity levels, avoiding exposure to corrosive chemicals or gases, and minimizing contact with water or moisture. By managing the environment, the likelihood of corrosion can be diminished, thereby safeguarding the steel billets. It is worth noting that the selection of a corrosion protection method hinges on various factors, including the expected extent of exposure to corrosive elements, the intended application of the steel billets, and cost considerations. Consequently, it is advisable to seek advice from corrosion experts or engineers to determine the most suitable method for a specific application.
Q: Can steel billets be used for making kitchen utensils?
Kitchen utensils can indeed be made using steel billets, which serve as raw materials that can be molded and crafted into various products. These steel billets must possess certain qualities like resistance to corrosion, durability, and the ability to withstand heat if they are to be used for kitchen utensils. The process of creating these utensils involves melting and casting the steel billets, which are then forged into the desired shapes and sizes. This allows for the production of knives, spoons, forks, cookware, and other utensils. To improve performance and appearance, the steel used in kitchen utensils is often treated and finished. Ultimately, steel billets play a crucial role in the manufacturing process of kitchen utensils by providing the necessary raw material needed to create durable and functional tools for cooking and food preparation.
Q: How are steel billets tested for internal defects?
Steel billets are tested for internal defects using non-destructive testing methods such as ultrasound, magnetic particle inspection, and eddy current testing. These techniques allow for the detection of cracks, voids, and other imperfections within the billet without causing any damage to the material.
Q: What is the average lead time for ordering steel billets?
The average lead time for ordering steel billets can vary depending on various factors such as the supplier, quantity required, and current market conditions. However, on average, it can range from a few weeks to a couple of months.
Q: What are the different types of surface treatment defects found in steel billets?
Steel billets may have various types of surface treatment defects that can occur at different stages of the process. These defects can have an impact on the quality and performance of the billets. Below are some common types of surface treatment defects in steel billets: 1. Scale: This defect manifests as an oxide layer on the surface of the billet. It occurs when the steel is exposed to high temperatures during manufacturing, like hot rolling or heat treatment. Scale affects the appearance and surface quality of the billet and may need to be removed before further processing. 2. Pitting: Pitting is another defect characterized by small localized holes or depressions on the billet's surface. It can happen due to corrosion or chemical reactions during the surface treatment process. Pitting reduces the strength and durability of the billet, making it prone to further damage and failure. 3. Decarburization: This defect involves the loss of carbon from the surface layer of the billet. It can occur due to exposure to high temperatures or chemical reactions during manufacturing. Decarburization reduces the hardness and strength of the billet, affecting its overall performance and suitability for specific applications. 4. Staining: Staining refers to discoloration or blemishes on the billet's surface. It can happen due to the presence of foreign substances like rust or contaminants during the surface treatment process. Staining affects the appearance and aesthetics of the billet, but it may not necessarily impact its mechanical properties. 5. Scratches and Abrasions: These physical defects occur during handling, transportation, or processing of the billet. They appear as visible marks or grooves on the surface and can affect the overall quality and appearance of the billet. While scratches and abrasions may not significantly impact the billet's mechanical properties, they compromise its surface integrity and may require further treatment or repair. Identifying and addressing these surface treatment defects in steel billets is crucial to ensure the desired quality and performance of the final product. Implementing proper inspection, monitoring, and control measures during the surface treatment process can help minimize or eliminate these defects, resulting in superior steel billets.

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