• AISI 1060 Carbon Steel Sae 1060 Steel Round Bar System 1
  • AISI 1060 Carbon Steel Sae 1060 Steel Round Bar System 2
AISI 1060 Carbon Steel Sae 1060 Steel Round Bar

AISI 1060 Carbon Steel Sae 1060 Steel Round Bar

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
25 m.t.
Supply Capability:
50000 m.t./month

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Specification

Type:
Carbon Steel
Shape:
Steel Round Bar

 AISI 1060 Carbon Steel Sae 1060 Steel Round Bar

 

Product Description:

  1. Carbon steel, stock available in annealed and QT condition.

  2. Flexible MOQ for order.

  3. Delivery 5-10 days.

  4. Good tolerance according the the OD.

  5. Staightness could meet 1mm/M per requirement

 

Specification:

Round bar

Diameter: 4mm~800mm

Angle bar

Size: 3mm*20mm*20mm~12mm*800mm*800mm

Square bar

Size: 4mm*4mm~100mm*100mm

Flat bar

Thickness: 2mm~100mm

Width:10mm~500mm

Hexagonal

Size: 4mm~800mm

Length:  2m,4m,5.8m,6m,11.8m,12m or as required.

 

Chemical Composition:

Standard

C

Si

Mn

Cr

Mo

P/S ≤

DIN

0.42-0.60

0.4

0.50-0.80

0.02

0.1

0.03

GB

0.42-0.60

0.4

0.50-0.80

0.02

0.1

0.03

 

Characteristic:

General purpose medium carbon steel delivered in as rolled condition. It can be further heat treated to achieve specific mechanical properties. The 0.45% carbon content is not favorable for welding. However, it can be weld with appropriate pre and post weld heat treatment. Surface hardness of 57~62 HRC can be achieved with cast hardening to a depth of approximately 1mm. Used for most transmission and motor parts of medium strength. Case hardened parts such as camshafts, gears, rocking levers etc. Simple hand tools and various types of fasteners and fixtures, machinery parts and components with medium stress.

 

Product Show:

AISI 1060 Carbon Steel Sae 1060 Steel Round Bar

AISI 1060 Carbon Steel Sae 1060 Steel Round Bar

 

Q:How can I determine the cooling water flow of square billet mold for special steel?
The mould water quantity is calculated according to experience. The cooling water quantity of mould is calculated according to the periphery length of mould:W=2 (L+D) - QkW in mould -- cooling water quantity of mould;L - slab width, mm;D - slab thickness, mm;Qk - water flow per unit length, L/ (min = mm), for billet mold, 2.0~3.0L/ (min. Mm).
Q:What are the different casting techniques used for special steel?
Some of the different casting techniques used for special steel include investment casting, sand casting, continuous casting, and centrifugal casting. Each technique has its own advantages and is chosen based on factors such as the complexity of the steel part, the desired quality, and cost considerations.
Q:What are the different heat-resistant grades of special steel?
There exists a variety of specialized steel grades that possess heat-resistant properties and are specifically engineered to endure elevated temperatures and thermal stress. Some of the commonly utilized heat-resistant grades are as follows: 1. Stainless Steel 310: Renowned for its exceptional resistance against high temperatures, oxidation, and corrosion, stainless steel 310 is capable of withstanding temperatures up to 1100°C (2012°F). It finds extensive application in furnace components, heat treatment baskets, and other heat-intensive scenarios. 2. Inconel 600: Inconel 600 is a nickel-chromium alloy that exhibits remarkable resistance to high temperatures and oxidation. It remains effective within a temperature range spanning from cryogenic levels to 1093°C (2000°F) and is widely employed in gas turbines, heat exchangers, and other environments characterized by elevated temperatures. 3. Hastelloy C-276: Hastelloy C-276, a nickel-molybdenum-chromium alloy, offers outstanding resistance against a broad array of corrosive settings and high temperatures. It can withstand temperatures up to 1093°C (2000°F) and is commonly utilized in chemical processing, power generation, and pollution control applications. 4. Titanium Grade 2: Titanium Grade 2 is a commercially pure titanium alloy that presents favorable resistance to high temperatures and corrosion. It remains effective in temperatures up to 538°C (1000°F) and is frequently employed in heat exchangers, chemical processing equipment, and marine applications. 5. Alloy 617: Alloy 617 is a nickel-chromium-cobalt-molybdenum alloy that showcases exceptional strength and resistance to high-temperature environments. It can endure temperatures up to 1204°C (2200°F) and is commonly utilized in gas turbines, petrochemical plants, and other industries that entail significant heat exposure. These aforementioned examples represent merely a fraction of the heat-resistant grades of specialized steel accessible in the market. The appropriate grade selection relies on the specific temperature requirements, corrosion resistance, and mechanical properties demanded by the application at hand.
Q:What are the main elements in special steel alloys?
The composition of special steel alloys varies depending on the specific type of alloy and its intended use. However, there are several shared elements that are often found in these alloys. These elements include: 1. Iron (Fe): Iron is the primary component of steel alloys, providing the foundation for their strength and durability. 2. Carbon (C): Carbon plays a crucial role in steel alloys, greatly impacting their hardness and strength. Different carbon levels can result in varying properties, such as high carbon steel for increased hardness or low carbon steel for improved flexibility. 3. Chromium (Cr): Steel alloys are frequently enriched with chromium to enhance their resistance to corrosion. It forms a protective layer on the alloy's surface, preventing oxidation and rusting. 4. Nickel (Ni): Nickel is commonly incorporated into special steel alloys to enhance their heat and corrosion resistance. It also contributes to improving the material's strength and toughness. 5. Manganese (Mn): Manganese is often added to steel alloys to improve their workability and machinability. It also enhances their strength and impact resistance. 6. Molybdenum (Mo): Special steel alloys often contain molybdenum to increase their strength, hardness, and ability to withstand high temperatures. It also improves their resistance to corrosion. 7. Vanadium (V): Vanadium is frequently used in steel alloys to enhance their strength, toughness, and heat resistance. It also aids in refining the alloy's grain structure, resulting in improved performance. These are just a few examples of the common elements found in special steel alloys. Depending on specific requirements and desired properties, other elements like tungsten, cobalt, copper, and titanium may also be present in varying proportions. The combination of these elements allows for the creation of specialized steel alloys with unique properties tailored for specific applications in industries such as aerospace, automotive, construction, and manufacturing.
Q:What are the different types of alloy steel?
There are several different types of alloy steel, including stainless steel, tool steel, maraging steel, high-strength low-alloy steel (HSLA), and nickel-based alloy steel.
Q:How is special steel graded?
Different factors, including its chemical composition, mechanical properties, and intended application, are taken into account when grading special steel. The grading system provides a standardized classification that aids in the identification and selection of the appropriate steel type for specific purposes. One commonly used method of grading special steel involves the use of alphanumeric codes. These codes consist of a combination of letters and numbers that represent specific characteristics of the steel. For instance, the American Iron and Steel Institute (AISI) employs a four-digit numbering system to grade various steel alloys. The first digit signifies the main alloying element, such as carbon or manganese, while the subsequent digits provide additional information regarding the steel's composition and properties. In addition to alphanumeric codes, special steel can also be graded based on its mechanical properties. This entails testing the steel's strength, hardness, toughness, and other performance indicators. The results of these tests determine the steel's specific grade, which helps users assess its suitability for particular applications. International standards organizations like ASTM International and the International Organization for Standardization (ISO) provide guidelines and specifications for grading special steel based on these mechanical properties. Furthermore, the intended application of the special steel also significantly influences its grading. Industries such as aerospace or automotive have specific material requirements. Therefore, special steel intended for these sectors is graded based on its ability to meet those requirements, such as corrosion resistance, heat resistance, or wear resistance. Special steel grades can also be categorized based on their ability to withstand extreme conditions or fulfill specific functions, such as tool steels for cutting or forming operations. Overall, the grading of special steel involves considering its chemical composition, mechanical properties, and intended application. By utilizing standardized grading systems and specifications, manufacturers, engineers, and other users can easily identify and select the most suitable type of special steel for their specific needs.
Q:What are the different methods for joining special steel?
Special steel, commonly used in applications requiring high strength, corrosion resistance, or specific mechanical properties, can be joined using various methods. Some of the most frequently employed methods include: 1. Welding: The most commonly used technique for joining special steel is welding. Different welding methods can be utilized, such as arc welding (including shielded metal arc welding, gas metal arc welding, and flux-cored arc welding), resistance welding (spot welding, seam welding), and laser welding. Welding necessitates the use of filler material to bond the steel components together, resulting in strong and durable joints. 2. Brazing: The process of joining special steel through brazing involves the use of a filler material (typically a brass or bronze alloy) with a lower melting point than the base steel. The filler material is heated until it melts and flows into the joint, creating a robust bond. Brazing is commonly employed for joining dissimilar metals or when the base steel possesses a high melting point. 3. Soldering: Similar to brazing, soldering involves the use of a filler material with a lower melting point to join special steel. However, soldering usually employs a non-ferrous filler material, such as tin-lead or tin-silver alloys. Soldering is frequently utilized for joining electronic components or fragile parts that cannot endure high temperatures. 4. Mechanical Fastening: Special steel can also be joined using mechanical fasteners, including bolts, screws, rivets, or clips. This method is often chosen when the joint needs to be easily disassembled or when welding or brazing is impractical or undesirable. 5. Adhesive Bonding: Adhesive bonding involves the use of specialized adhesive or glue to join special steel. This method is suitable when joining thin or delicate steel components or when the joint requires high resistance to vibration or shock. Adhesive bonding can create a strong and durable bond, although it may not be suitable for high-temperature or high-stress applications. When selecting the appropriate method for joining special steel, it is crucial to consider the specific requirements of the application, such as strength, corrosion resistance, temperature resistance, and desired permanence of the joint. Each method possesses its own advantages and limitations, and choosing the right approach ensures a robust and dependable joint.
Q:What are the main applications of special steel in the chemical industry?
Special steel is widely used in the chemical industry for various applications. One of the main applications is in the construction of chemical processing equipment, such as reactors, storage tanks, and pipes, due to its excellent corrosion resistance properties. Additionally, special steel is used for manufacturing valves, fittings, and pumps, where high strength and resistance to chemicals are crucial. It is also utilized in the production of heat exchangers and condensers, which require materials that can withstand extreme temperatures and corrosive environments. Overall, special steel plays a vital role in ensuring the safety and efficiency of chemical processes in the industry.
Q:How does special steel perform in terms of wear resistance?
Special steel is known for its exceptional wear resistance, making it highly durable and long-lasting even under harsh conditions. It exhibits superior resistance to abrasion, erosion, and impact, allowing it to withstand heavy usage and minimize wear and tear. This characteristic makes special steel an excellent choice for applications where wear resistance is crucial, such as in the manufacturing of tools, machinery, and automotive components.
Q:How is shock-resistant steel used in the production of impact tools?
Shock-resistant steel is used in the production of impact tools due to its exceptional ability to withstand high impact forces without deforming or breaking. This steel is specifically designed to absorb and distribute the energy generated during impacts, making it an ideal material for tools such as hammers, wrenches, and chisels. By using shock-resistant steel, manufacturers ensure that their impact tools can endure rigorous use and provide reliable performance, even in demanding applications.

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