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Composite steel plate is produced using composite rolling technology, which involves rolling together carbon structural steel, low-alloy high-strength structural steel, or high-strength quenched and tempered steel, with stainless steel, special steel, or other materials, to create a plate with single or double-sided bonding. The resulting composite steel plate has a high degree of bonding between its constituent layers.
Clad plates are categorized into three types, namely mechanical clad, explosion clad, and Clad-Rolled plate. Mechanical clad is primarily utilized in the direct production of clad pipes, while explosion clad and rolled-clad methods involve the production of clad steel plates first, which are then transformed into clad pipes or hot and cold-rolled clad plates/coils.
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
SA533CL1+304L | 555 | 661 | 25 |
S31254+Q345B | 450 | 650 | 30 |
825+X65 | 500 | 594 | 46 |
304L+BDT01+304L | 395 | 540 | 32 |
S32205+Q345C | 545 | 638 | 22 |
316L+Q345B | 430 | 580 | 30 |
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BMJ01 stainless steel composite coils are produced using a controlled rolling and cooling technique that combines conventional austenitic stainless steel 304 with ordinary carbon steel Q235B. This composite rolling process results in products with superior comprehensive properties, including excellent mechanical properties and corrosion resistance.
A robust economy requires the efficient use of precious metals like nickel and chromium. Atomic diffusion is used to bond the base and cladding materials, making it impossible to separate them. Composite materials offer comparable levels of uniform corrosion resistance and pitting as solid solution 304. In fact, they often outperform carbon steel alternatives. Welding filler metals produce joints that exhibit exceptional overall performance.
Grade | Chemical composition% | |||||
C | N | Si | Mn | Cr | Ni | |
BMJ01 | ≤0.08 | ≤0.10 | ≤0.75 | ≤2.0 | 18.0-20.0 | 8.0-10.0 |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
BMJ01 | 300 | 450 | 44 |
The base material is carbon steel, which exhibits a typical structure of ferrite (F) and pearlite (P). On the other hand, the cladding material is stainless steel, devoid of carbide precipitation, and bonded metallurgically to the base material.
The composite material exhibits uniform corrosion resistance, as demonstrated by its ability to withstand the neutral salt spray test specified in GB/T10125 for 240 hours without any signs of rust. Its pitting corrosion performance is also noteworthy, with a pitting potential measurement of above 0.30V, which is equivalent to solid solution 304 stainless steel, as per the GB/T 17899 method. Furthermore, its intergranular corrosion resistance is comparable to that of solid solution 304 stainless steel, as determined by the ASTM G108 test method for detecting electrochemical reactivation (EPR) in sensitized 304 and 304L stainless steel.
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Checkered plates are in high demand due to their aesthetic appeal and slip-resistant surfaces, and are commonly used in a variety of settings such as roads, stairways, trench covers, and platforms in various industrial settings including manufacturing, chemical plants, food factories, and pharmaceutical plants. However, carbon steel checkered plates are known to be susceptible to corrosion, which poses a major problem for industries operating in corrosive environments. This not only increases costs but also compromises the safety of components, reducing the material's usability. To address this issue, designers may consider using additional materials and extending maintenance periods. While stainless steel checkered plates offer corrosion resistance, they lack the necessary structural properties for safe operation. Rolled composite high-strength anti-corrosion checkered plates have recently been introduced as a solution, offering both the corrosion resistance of stainless steel cladding and the mechanical properties of carbon steel bases. These plates exhibit superior macroscopic appearance characteristics, enhanced structural features, mechanical properties, and user processing abilities, making them a highly preferred option overall.
The composite pattern plate comprises of four layers, with the upper and lower layers made of stainless steel, while the center layer is carbon steel. The upper surface features a patterned design, and the lower surface is flat. By using stainless steel cladding material in the upper and lower layers, the composite pattern plate offers equivalent corrosion resistance as pure stainless steel. It eliminates the need for anti-corrosion treatment during use, reduces the need for manual inspection and maintenance, and eliminates potential safety hazards.
Grade | Mechanical properties | |||
YS,,Mpa | TS,Mpa | EL,% | ||
BHW01 | Technical conditions | ≥350 | ≥500 | ≥10 |
Typical performance | 484 | 627 | 37.3 | |
BHW02 | Technical conditions | ≥350 | ≥500 | ≥10 |
Typical performance | 487 | 597 | 22.4 |
The exceptional processing capabilities of the material allow for both forward and reverse bending up to 0.7a without cracking or delamination, meeting the processing requirements of numerous components.
The material exhibits excellent corrosion resistance, with uniform performance in neutral salt spray tests (GB/T 10125) for up to 240 hours without any signs of rusting. In terms of pitting performance, the multilayer stainless steel's pitting potential measures above 0.30V using the GB/T 17899 method, equivalent to that of solid solution 304 stainless steel. Similarly, when tested for intergranular corrosion resistance using the ASTM G108 electrochemical reactivation (EPR) test method, the multilayer stainless steel performs similarly to solid solution 304 stainless steel.
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Electro-galvanizing, also known as electroplating or electrodeposition, is a process of coating a metal with a layer of zinc using an electrical current. The process involves immersing the metal object, typically steel, into an electrolyte solution containing dissolved zinc ions, and then applying an electric current to the metal.
The electric current causes the zinc ions in the solution to be attracted to the metal surface, where they form a thin layer of zinc on the metal. The thickness of the zinc coating can be controlled by adjusting the voltage and the duration of the electro-galvanizing process.
The electro-galvanizing process provides several benefits, including corrosion resistance, improved appearance, and enhanced durability. Zinc is an excellent sacrificial anode, meaning it corrodes in preference to the underlying metal, providing a protective barrier against corrosion. Additionally, the zinc layer can be finished to achieve a range of surface textures, from smooth to matte or textured. Electro-galvanizing is commonly used in the manufacturing of automotive parts, appliances, construction materials, and various other products.
Automobile: body panels, radios, fans, air cleaners, filters, fuel tanks
Home appliances: refrigerators, washing machines, dryers, air conditioners, VCRs, CD players, color TVs, tape recorders, microwave ovens, audio, flat-screen TVs, liquid TVs, plasma TVs, set-top boxes
Office machines: copiers, computer cases, printers, monitors, telex machines
Construction: doors, wall partitions, joists
Production machinery: agricultural machinery, industrial robots
Others: Distributors, oil storage tanks, motor covers, steel furniture bases
Grade | Chemical composition% | ||||
C | Mn | P | S | Alt | |
SPCC | ≤0.12 | ≤0.50 | ≤0.035 | ≤0.025 | ⩾0.020 |
SPCD | ≤0.10 | ≤0.45 | ≤0.030 | ≤0.025 | ⩾0.020 |
SPCE, SPCEN | ≤0.08 | ≤0.40 | ≤0.025 | ≤0.020 | ⩾0.020 |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
SPCC | - | ⩾270 | ⩾30 |
SPCD | - | ⩾270 | ⩾32 |
SPCE, SPCEN | ⩾210 | ⩾270 | ⩾34 |
Grade | Chemical composition% | |||||
C | Mn | P | S | Alt | Ti% | |
BLCE+Z,BLCE+ZN | ≤0.10 | ≤0.50 | ≤0.035 | ≤0.025 | ⩾0.020 | - |
BLDE+Z,BLDE+ZN | ≤0.08 | ≤0.45 | ≤0.030 | ≤0.025 | ⩾0.020 | - |
BUSDE+Z,BUSDE+ZN | ≤0.010 | ≤0.40 | ≤0.025 | ≤0.020 | ≥0.015 | ≤0.20 |
BUFDE+Z,BUFDE+ZN | ≤0.008 | ≤0.30 | ≤0.020 | ≤0.020 | ≥0.015 | ≤0.20 |
BSUFDE+Z,BSUFDE+ZN | ≤0.006 | ≤0.30 | ≤0.020 | ≤0.020 | ≥0.015 | ≤0.20 |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
BLCE+Z,BLCE+ZN | 140~270 | ⩾270 | ⩾36 |
BLDE+Z,BLDE+ZN | 120~240 | ⩾270 | ⩾38 |
BUSDE+Z,BUSDE+ZN | 120~210 | ⩾260 | ⩾40 |
BUFDE+Z,BUFDE+ZN | 120~190 | ⩾250 | ⩾42 |
BSUFDE+Z,BSUFDE+ZN | 110~180 | ⩾250 | ⩾44 |
Grade | Chemical composition% | |||||
C | Mn | P | S | Alt | Ti% | |
B170P1E+Z,B170P1E+ZN | ≤0.006 | ≤1.00 | ≤0.08 | ≤0.025 | ⩾0.015 | ≤0.20 |
B210P1E+Z,B210P1E+ZN | ≤0.008 | ≤1.20 | ≤0.10 | ≤0.025 | ⩾0.015 | ≤0.20 |
B250P1E+Z,B250P1E+ZN | ≤0.008 | ≤1.20 | ≤0.12 | ≤0.025 | ≥0.015 | ≤0.20 |
B180P2E+Z,B180P2E+ZN | ≤0.08 | ≤0.80 | ≤0.12 | ≤0.025 | ⩾0.020 | - |
B220P2E+Z,B220P2E+ZN | ≤0.10 | ≤1.00 | ≤0.12 | ≤0.025 | ⩾0.020 | - |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
B170P1E+Z,B170P1E+ZN | 170~260 | ⩾340 | ⩾36 |
B210P1E+Z,B210P1E+ZN | 210~310 | ⩾390 | ⩾32 |
B250P1E+Z,B250P1E+ZN | 250~360 | ⩾440 | ⩾30 |
Grade | Chemical composition% | |||||
C | Mn | P | S | Alt | Nb | |
B140H1E+Z,B140H1E+ZN | ≤0.006 | ≤0.40 | ≤0.04 | ≤0.020 | ⩾0.015 | ≤0.10 |
B180H1E+Z,B180H1E+ZN | ≤0.008 | ≤1.00 | ≤0.08 | ≤0.020 | ⩾0.015 | ≤0.10 |
B180H2E+Z,B180H2E+ZN | ≤0.020 | ≤0.40 | ≤0.12 | ≤0.025 | ⩾0.020 | - |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
B140H1E+Z,B140H1E+ZN | 140~230 | ⩾270 | ⩾41 |
B180H1E+Z,B180H1E+ZN | 180~280 | ⩾340 | ⩾35 |
B180H2E+Z,B180H2E+ZN | 180~280 | ⩾340 | - |
Grade | Chemical composition% | |||||
C | Si | Mn | P | S | Alt | |
B340/590DPE+Z,B340/590DPE+ZN | ≤0.18 | ≤0.80 | ≤2.20 | ≤0.035 | ≤0.030 | ⩾0.020 |
B400/780DPE+Z,B400/780DPE+ZN | ≤0.20 | ≤0.80 | ≤2.50 | ≤0.035 | ≤0.030 | ⩾0.020 |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
B340/590DPE+Z,B340/590DPE+ZN | 340~500 | ⩾590 | ⩾16 |
B400/780DPE+Z,B400/780DPE+ZN | 400~590 | ⩾780 | - |
Grade | Chemical composition% | |||||
C | Mn | P | S | Alt | Nb | |
B340LAE+Z,B340LAE+ZN | ≤0.12 | ≤1.00 | ≤0.030 | ≤0.030 | ⩾0.020 | ≤0.09 |
B410LAE+Z,B410LAE+ZN | ≤0.20 | ≤2.00 | ≤0.030 | ≤0.030 | ⩾0.020 | ≤0.09 |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
B340LAE+Z,B340LAE+ZN | 340~460 | ⩾440 | ⩾22 |
B410LAE+Z,B410LAE+ZN | 410~560 | ⩾590 | ⩾16 |
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Grade | Chemical composition% | |||||||
C | Si | Mn | P | S | Alt | Ti | Nb | |
(≤) | (≤) | (≤) | (≤) | (≤) | (≥) | (≤) | (≤) | |
DC51D+Z,DC51D+ZF | 0.1 | — | 0.5 | 0.035 | 0.035 | — | — | — |
(St01Z.St02Z.St03Z) | 0.1 | — | 0.5 | 0.035 | 0.035 | — | — | — |
DC52D+Z(St04Z) | 0.08 | — | 0.45 | 0.03 | 0.03 | — | — | — |
DC52D+ZF | 0.08 | — | 0.45 | 0.03 | 0.03 | — | — | — |
DC53D+Z(St05Z) | 0.08 | — | 0.4 | 0.03 | 0.03 | — | — | — |
DC53D+ZF | 0.08 | — | 0.4 | 0.03 | 0.03 | — | — | — |
DC54D+Z(St06Z) | 0.01 | 0.1 | 0.3 | 0.025 | 0.02 | 0.015 | 0.1 | — |
DC54D+ZF | 0.01 | 0.1 | 0.3 | 0.025 | 0.02 | 0.015 | 0.1 | — |
DC56D+Z(St07Z) | 0.01 | 0.1 | 0.3 | 0.025 | 0.02 | 0.015 | 0.1 | 0.1 |
DC56D+ZF | 0.01 | 0.1 | 0.3 | 0.025 | 0.02 | 0.015 | 0.1 | 0.1 |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
DC51D+Z(St01Z,St02Z,St03Z), DC51D+ZF | — | 270~500 | ≥20 |
DC52D+Z(St04Z), DC52D+ZF | 140~300 | 270~420 | ≥24 |
DC53D+Z(St05Z), DC53D+ZF | 140~260 | 270~380 | ≥28 |
DC54D+Z(St06Z), DC54D+ZF | 140~220 | 270~350 | ≥32 |
Grade | Chemical composition% | |||||||
C | Si | Mn | P | S | Alt | Ti | Nb | |
(≤) | (≤) | (≤) | (≤) | (≤) | (≥) | (≤) | (≤) | |
DD51D+Z(St01ZR, St02ZR) | 0.1 | — | 0.5 | 0.035 | 0.035 | — | — | — |
DD54D+Z(St06ZR) | 0.01 | 0.1 | 0.3 | 0.025 | 0.02 | 0.015 | 0.1 | — |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL(MPa) | |
DC56D+Z(St07Z) | 120~180 | 270-350 | ≥38 |
DC56D+ZF | 120~180 | 270-350 | ≥36 |
Grade | Chemical composition% | |||||
C | Si | Mn | P | S | Alt | |
(≤) | (≤) | (≤) | (≤) | (≤) | (≥) | |
S220GD+Z, S220GD+ZF | 0.13 | — | 0.5 | 0.035 | 0.035 | 0.015 |
S250GD+Z, S250GD+ZF | 0.16 | — | 0.6 | 0.035 | 0.035 | 0.015 |
S280GD+Z(StE280-2Z), S280GD+ZF | 0.2 | — | 0.8 | 0.035 | 0.035 | 0.015 |
S320GD+Z, S320GD+ZF | 0.23 | — | 1 | 0.035 | 0.035 | 0.015 |
S350GD+Z(StE345-2Z), S350GD+ZF | 0.25 | — | 1.5 | 0.035 | 0.035 | 0.015 |
S550GD+Z, S550GD+ZF | 0.25 | — | 1.5 | 0.035 | 0.035 | — |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
S220GD+Z, S220GD+ZF | ≥220 | ≥300 | ≥18 |
S250GD+Z, S250GD+ZF | ≥250 | ≥330 | ≥17 |
S280GD+Z(StE280-2Z), S280GD+ZF | ≥280 | ≥360 | ≥16 |
S320GD+Z, S320GD+ZF | ≥320 | ≥390 | ≥15 |
S350GD+Z(StE345-2Z), S350GD+ZF | ≥350 | ≥420 | ≥14 |
S550GD+Z, S550GD+ZF | ≥550 | ≥560 | — |
Grade | Chemical composition% | |||||||
C(≤) | Si(≤) | Mn(≤) | P(≤) | S(≤) | Alt(≥) | Ti(≤) | Nb(≤) | |
H220PD+Z, H220PD+ZF | 0.08 | 0.5 | 0.7 | 0.08 | 0.025 | 0.015 | — | — |
H260PD+Z, H260PD+ZF | 0.15 | 0.5 | 0.7 | 0.1 | 0.025 | 0.01 | — | — |
H300LAD+Z, H300LAD+ZF | 0.1 | 0.5 | 1 | 0.03 | 0.025 | 0.015 | 0.015 | 0.09 |
H340LAD+Z(HSA340Z), H340LAD+ZF | 0.1 | 0.5 | 1 | 0.03 | 0.025 | 0.015 | 0.015 | 0.09 |
H380LAD+Z | 0.16 | 0.5 | 1.5 | 0.03 | 0.025 | 0.015 | 0.015 | 0.09 |
H420LAD+Z(HSA410Z) | 0.16 | 0.5 | 1.5 | 0.03 | 0.025 | 0.015 | 0.015 | 0.09 |
H180BD+Z, H180BD+ZF | 0.04 | 0.5 | 0.7 | 0.06 | 0.025 | 0.02 | — | — |
H220BD+Z, H220BD+ZF | 0.06 | 0.5 | 0.7 | 0.08 | 0.025 | 0.02 | — | — |
H260BD+Z, H260BD+ZF | 0.08 | 0.5 | 0.7 | 0.1 | 0.025 | 0.02 | — | — |
H180YD+Z, H180YD+ZF | 0.01 | 0.1 | 0.7 | 0.06 | 0.025 | 0.02 | 0.12 | — |
H220YD+Z, H220YD+ZF | 0.01 | 0.1 | 0.9 | 0.08 | 0.025 | 0.02 | 0.12 | — |
H260YD+Z, H260YD+ZF | 0.01 | 0.1 | 1.6 | 0.1 | 0.025 | 0.02 | 0.12 | — |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL%(≥) | |
H220PD+Z, H220PD+ZF | 220~320 | 340~420 | 32 |
H260PD+Z, H260PD+ZF | 260-340 | 380~440 | 28 |
H300LAD+Z, H300LAD+ZF | 300~380 | 380~480 | 23 |
H340LAD+Z(HSA340Z), H340LAD+ZF | 340~420 | 410~510 | 21 |
H380LAD+Z | 380~480 | 440-560 | 19 |
H420LAD+Z(HSA410Z) | 420~520 | 470-590 | 17 |
H180YD+Z, H180YD+ZF | 180~240 | 340~400 | 34 |
H220YD+Z, H220YD+ZF | 220~280 | 340~410 | 32 |
H260YD+Z, H260YD+ZF | 260~320 | 380~440 | 30 |
H180BD+Z, H180BD+ZF | 180~240 | 300-360 | 34 |
H220BD+Z, H220BD+ZF | 220~280 | 340~400 | 32 |
H260BD+Z, H260BD+ZF | 260~320 | 360~440 | 28 |
Grade | Chemical composition% | |||||||
C(≤) | Si(≤) | Mn(≤) | P(≤) | S(≤) | Alt(≥) | Ti(≤) | Nb(≤) | |
DD51D+Z(St01ZR,St02ZR) | 0.1 | — | 0.5 | 0.035 | 0.035 | — | — | — |
DD54D+Z(St06ZR) | 0.01 | 0.1 | 0.3 | 0.025 | 0.02 | 0.015 | 0.01 | — |
HR340LAD+Z(HSA340ZR) | 0.1 | 0.2 | 1 | 0.03 | 0.025 | — | — | 0.09 |
HR420LAD+Z(HSA410ZR) | 0.12 | 0.2 | 1 | 0.03 | 0.025 | — | — | 0.09 |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL%(≥) | |
DD51D+Z(St01ZR,St02ZR) | — | 270~500 | — |
DD54D+Z(St06ZR) | ≤260 | ≤360 | 36 |
HR340LAD+Z(HSA340ZR) | ≥340 | ≥410 | 18 |
HR410LAD+Z(HSA410ZR) | ≥410 | ≥480 | 15 |
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Tin mill products comprise of three types of steel sheets: electrolytic tinplate, tin free steel (TFS), and black plate which is uncoated steel. Tinplate is a thin sheet of steel coated with a layer of tin, while TFS is made of a steel base with a thin layer of chromium and chromium oxide deposited on it. These products have an attractive metallic sheen and offer exceptional corrosion resistance and paintability properties.
Tinplate products offer exceptional features, including excellent corrosion resistance, which can be tailored by selecting the appropriate coating thickness to meet different requirements. These products also have an outstanding finishing ability, as they can be printed with a range of paints and inks. Additionally, they possess excellent weldability, making them suitable for the production of various cans, including those made by brazing. Tinplate products also exhibit remarkable processability and strength, which can be adjusted by selecting the appropriate quenching and tempering degree to meet specific processing requirements and the desired strength after forming. Lastly, the bright metallic luster of the tinplate surface offers an attractive appearance, which can be further customized by selecting substrates with different surface states to achieve products with varying levels of surface roughness.
Tin free steel (TFS) products boast exceptional features that make them ideal for various applications. These features include excellent paint adhesion properties that far exceed those of electrolytic tinplate (ETP), making TFS suitable for producing Directly-Resist-Drawn (DRD) cans and adhesive bonded cans. Moreover, TFS exhibits outstanding heat resistance, as high-temperature baking does not cause discoloration or deterioration in its material properties. TFS also has excellent resistance to Sulphur Blackening, thanks to the metallic chromium in its composition, which makes it ideal for canning protein-rich foods like fish and helps avoid the need for expensive sulphur-resistant lacquers. Additionally, TFS offers remarkable filiform rust resistance, providing excellent under film corrosion resistance. Lastly, the coating in TFS is not amphoteric, making it highly resistant to alkalis such as detergents and dispersion colors, offering an added advantage in packing such products.
Grade | Hardness | YS | |
Target Value | Range | ||
DR-7M | 71 | 71±5 | 520 |
DR-8 | 73 | 73±5 | 550 |
DR-8M | 73 | 73±5 | 580 |
DR-9 | 76 | 76±5 | 620 |
DR-9M | 77 | 77±5 | 660 |
DR-10 | 80 | 80±5 | 690 |
TFS and ETP exhibit various distinguishing features. TFS has a unique surface luster similar to metallic chromium when a similar finish is applied to the substrate steel sheet. It also displays exceptional corrosion resistance when painted and is commonly utilized with both painted surfaces, but may be used without paint internally, depending on the contents. However, it is not compatible with soldering, and its weldability is inferior to ETP, although it can be welded after the removal of its metallic coating layers. Additionally, TFS only has one standardized chromium-coated product, unlike tin which has multiple coating weights available.
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To achieve a smooth and attractive surface on hot rolled steel plates, it is necessary to use hydrochloric acid for cleaning. This process also helps to level the plate's surface, making it more similar to that of a cold-rolled plate. Pickling is then performed to remove any iron oxide scale, which makes surface defects more visible and easier to address. Thus, it is crucial to prioritize surface quality when controlling the production process.
Grade | Chemical composition% | |||||||
C | Si | Mn | P | S | Ti | Nb | Alt | |
S315MC | ≤0.12 | ≤0.05 | ≤1.20 | ≤0.03 | ≤0.025 | – | – | ≥0.01 |
S355MC | ≤0.12 | ≤0.05 | ≤1.30 | ≤0.03 | ≤0.025 | ≤0.22 | ≤0.09 | ≥0.015 |
S420MC | ≤0.12 | ≤0.05 | ≤1.50 | ≤0.03 | ≤0.025 | ≤0.22 | ≤0.09 | ≥0.015 |
S460MC | ≤0.12 | ≤0.05 | ≤1.60 | ≤0.03 | ≤0.025 | ≤0.22 | ≤0.09 | ≥0.015 |
S500MC | ≤0.12 | ≤0.05 | ≤1.70 | ≤0.03 | ≤0.025 | ≤0.22 | ≤0.09 | ≥0.015 |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
S315MC | ≥315 | 390-510 | ≥24 |
S355MC | ≥355 | 430-550 | ≥23 |
S420MC | ≥420 | 480-620 | ≥19 |
S460MC | ≥460 | 520-670 | ≥17 |
S500MC | ≥500 | 550-700 | ≥14 |
Grade | Chemical composition% | |||||
C | Si | Mn | P | S | Alt | |
HR340 | ≤0.15 | – | ≤1.00 | ≤0.025 | ≤0.035 | – |
HR380 | ≤0.12 | ≤0.5 | ≤1.40 | ≤0.03 | ≤0.025 | – |
340XLF | ≤0.15 | – | ≤1.00 | ≤0.040 | ≤0.05 | – |
050XLF | ≤0.13 | – | ≤0.90 | – | – | – |
HR1 | ≤0.10 | – | ≤0.50 | ≤0.025 | ≤0.020 | ≥0.015 |
HR2 | ≤0.10 | – | ≤0.50 | ≤0.025 | ≤0.020 | ≥0.020 |
HR3 | ≤0.08 | – | ≤0.50 | ≤0.025 | ≤0.020 | ≥0.020 |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
HR340 | 340-450 | ≥410 | ≥22 |
HR380 | ≥380 | 450-590 | ≥18 |
340XLF | ≥340 | ≥410 | ≥22 |
050XLF | ≥340 | ≥410 | ≥22 |
HR1 | 210-320 | ≥310 | ≥30 |
HR2 | 180-290 | ≥270 | ≥34 |
HR3 | 180-260 | ≥270 | ≥38 |
Baosteel's HR60 wheel net steel trial exhibits several remarkable features, including exceptional strength, outstanding fatigue resistance, superior surface quality, and impressive welding capabilities.
Grade | Chemical composition% | ||||||
C | Si | Mn | P | S | Alt | Nb | |
HR60 | ≤0.16 | ≤0.50 | ≤1.60 | ≤0.030 | ≤0.025 | 0.010-0.06 | ≤0.06 |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
HR60 | 450-550 | 550-650 | ≥24 |
The steel's microstructure comprises a soft ferrite matrix with a fine and dispersed hard phase of martensite or bainite (typically around 15%). As a result, the steel exhibits a yield strength ratio of ≤ 0.75 and displays an excellent balance between strength and plasticity, with high elongation and work hardening rate. These characteristics facilitate superior deep drawing performance and reasonable reaming performance.
Grade | Chemical composition% | |||||||
C | Si | Mn | P | S | Alt | Nb | Ti | |
DP600 | ≤0.12 | ≤1.50 | ≤1.50 | ≤0.030 | ≤0.010 | 0.02-0.06 | ≤1.00 | – |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
DP600 | 330-450 | ≥580 | ≥24 |
Grade | Chemical composition% | |||||||
C | Si | Mn | P | S | Alt | Nb | Ti | |
BR340/540HE | ≤0.06 | 0.30-1.00 | 1.0-2.0 | ≤0.030 | ≤0.020 | ≥0.015 | 0.01-0.07 | 0.01-0.07 |
BR440/590HE | ≤0.06 | 0.30-1.00 | 1.0-2.0 | ≤0.030 | ≤0.020 | ≥0.015 | 0.01-0.07 | 0.01-0.07 |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
BR340/540HE | 390-540 | ≥540 | 20-34 |
BR440/590HE | 440-600 | ≥590 | 18-32 |
Super high strength steel, treated with heat and formed through hot stamping technology, has resulted in a significant strength improvement (up to 1500Mpa) in processed automobile parts. Baosteel has successfully developed this technology, and is now supplying heat-treated steel plates in large quantities. These plates are primarily used for processing structural parts that require high levels of safety, such as the middle pillar, door reinforcing bar, front and rear bumper, and other similar products. By utilizing this technology, automobile safety can be significantly enhanced.
Grade | Chemical composition% | |||||
C | Si | Mn | P | S | Alt | |
BR1500HS | 0.18-0.22 | ≤0.40 | 1.0-1.5 | ≤0.025 | ≤0.01 | 0.01-0.04 |
Grade | Mechanical properties | ||
YS(MPa) | TS(MPa) | EL% | |
BR1500HS | 320-1200 | ≥1570 | ≥16 |
Pickling products possess several notable features that can be beneficial to enterprises seeking to reduce costs. For instance, hot rolled pickling plates can replace corresponding cold rolled plates, resulting in significant cost savings. Moreover, these plates have an improved surface quality compared to ordinary hot-rolled plates, as the surface scale is removed, which makes them convenient for welding, oiling, and painting. They also offer high dimensional accuracy, with leveling reducing any deviation of unevenness. Finally, the surface finish of pickling products is significantly enhanced, resulting in a better appearance effect.
If you are interested in our products, please feel free to contact us, we look forward to establishing a long-term cooperative relationship with you and developing together!