Carbon steel wire is an iron-based material with carbon as the main alloying element. It is divided into three categories according to the carbon content: low carbon (C≤0.25%), medium carbon (0.25%-0.60%) and high carbon (C≥0.60%). Low carbon steel wire has good plasticity and is mostly used for building binding; medium carbon steel wire has moderate strength and is suitable for manufacturing mechanical parts; high carbon steel wire has high hardness and is often used for springs, wire ropes, etc. Its advantages are low cost, easy processing and high strength. By adjusting the carbon content and heat treatment process, it can meet the diverse needs from civilian light load to industrial heavy load.

Q195 carbon steel wire is a low-carbon steel wire with a carbon content of ≤0.15%. It has good plasticity and is easy to process. It is widely used in building bundling, wire mesh weaving and ordinary welding structures. It has low cost and strong ductility, making it suitable for large-scale manufacturing scenarios. Compared with high-carbon steel wire, Q195 pays more attention to toughness and formability. It is suitable for general-purpose metal parts with low strength requirements. It is a basic material in the construction and light industry fields.

Q235 carbon steel wire is a low-carbon steel wire with a carbon content of ≤0.22%. It has good plasticity and excellent welding performance and is widely used in building reinforcement, welded skeletons and mechanical parts. It has low cost and high strength, and is suitable for manufacturing general parts such as shafts and hooks. Compared with Q195, Q235 has a slightly higher carbon content and a strength increase of about 15%. It is suitable for scenes with higher toughness requirements and is a basic material with outstanding cost performance in the construction and manufacturing industries.

Q275 carbon steel wire is a low-carbon steel wire with a carbon content of 0.18%-0.28%. It has high strength and certain plasticity and is widely used in the manufacture of wear-resistant parts such as rollers and spindles. Compared with Q235, its carbon content is increased by about 0.06%, and its yield strength is increased to about 275MPa, making it more suitable for mechanical parts with requirements for hardness. Q275 takes into account both strength and processability, and is an economical choice for key structural parts in the manufacturing industry.

Q345 Carbon Steel Wire offers superior strength, corrosion resistance, and good plasticity for diverse applications in the construction, automobile, home appliance, electronic equipment, and craft products industries. With its high hardness, wear resistance, and electrical conductivity, it's a must-have material for various industrial and manufacturing needs. Our company provides high-quality, low-cost steel products with comprehensive production pictures/videos and fast delivery.

82B high carbon steel wire contains 0.78%-0.85% carbon, with trace amounts of chromium and vanadium added, and has a tensile strength of more than 1860MPa. It is mainly used in prestressed concrete structures, bridge cables and high-strength steel wire ropes. Its advantages lie in its ultra-high strength and fatigue resistance. Through lead quenching heat treatment, it obtains a fine pearlite structure, which prolongs its service life several times. It is an irreplaceable key material in major projects.

65Mn spring steel wire is made of medium carbon alloy steel with a carbon content of 0.62%-0.70%. The manganese content improves elasticity and hardenability. After lead quenching, the hardness reaches HRC42-48, with a high elastic limit. It is widely used in automobile suspension springs, valve springs, etc. Its advantages lie in its excellent fatigue resistance and cost-effectiveness. After heat treatment, it has excellent comprehensive mechanical properties and is the preferred material for spring parts in the manufacturing industry.

SAE1010 carbon steel wire is a low-carbon steel wire with a carbon content of ≤0.10%. It has good plasticity and is easy to process and shape. It is widely used in building bundling, light welded structures and cold stamping parts. Its advantage is that its extremely low carbon content ensures excellent welding performance and ductility. It is suitable for manufacturing general metal parts that do not require high hardness. It is the preferred material for low-cost large-scale applications.

SAE1006 carbon steel wire is an ultra-low carbon steel wire with a carbon content of ≤0.08%. It is designed for precision processing and is widely used in electrogalvanized wire mesh, precision punching mesh and micro springs. Its advantage is that the extremely low carbon content ensures excellent deep drawing performance and corrosion resistance. It is suitable for manufacturing small metal parts with high requirements for precision and surface quality. It is the preferred material for high-end woven mesh and micro structures.

SAE1008 carbon steel wire is a low-carbon steel wire with a carbon content of ≤0.10%. It has good plasticity and excellent welding performance and is widely used in building bundling, light welded structures and cold stamping parts. Its advantage is that its extremely low carbon content ensures excellent formability and ductility. It is suitable for manufacturing general metal parts that do not require high hardness. It is a cost-effective basic material in the construction and light industry fields.

SAE1035 carbon steel wire is a medium carbon steel wire with a carbon content of 0.32%-0.38%. It has moderate strength and good toughness and is widely used in the manufacture of mechanical parts such as connecting rods and gears. Its advantage lies in its balanced comprehensive mechanical properties. After heat treatment, it can obtain good wear resistance. It is suitable for parts that bear medium loads and is a common material with high cost performance in the machinery manufacturing industry.

SAE1045 carbon steel wire is a medium carbon steel wire with a carbon content of 0.42%-0.50%. It has a balance of strength and toughness and is widely used in the manufacture of key mechanical parts such as crankshafts and bearings. Its advantages lie in its excellent comprehensive mechanical properties and improved wear resistance after heat treatment. It is suitable for complex working conditions with alternating loads and is a cost-effective core material in the machinery manufacturing industry.