Selling-list
Selling-list
- S32304 Stainless Steel Composition & Duplex Corrosion‑Resistant Properties
- S32304 is a standard duplex stainless steel containing 22–24% chromium, 3–5% nickel, nitrogen, and small amounts of molybdenum. It offers excellent resistance to pitting and crevice corrosion, with a PREN value higher than 316L.
- Read more »
- S32101 Stainless Steel Composition & Lean Duplex Properties
- S32101 is a lean duplex stainless steel containing approximately 21–22% chromium, low nickel (1.3–1.7%), nitrogen, and manganese. It offers twice the yield strength of austenitic grades while maintaining good resistance to pitting and crevice corrosion.
- Read more »
- 420 Stainless Steel Composition & High‑Hardness Martensitic Properties
- 420 (UNS S42000) is a high‑hardness martensitic stainless steel containing 12–14% chromium and elevated carbon levels (0.15–0.40%). It can be hardened above 50 HRC through heat treatment, offering excellent wear resistance and mechanical strength.
- Read more »
- 420 Stainless Steel Composition & High‑Hardness Martensitic Properties
- 420 (UNS S42000) is a high‑hardness martensitic stainless steel containing 12–14% chromium and elevated carbon levels (0.15–0.40%). It can be hardened to above 50 HRC through heat treatment, making it a classic high‑hardness stainless steel.
- Read more »
- 416 Stainless Steel Composition & Free‑Machining Martensitic Properties
- 416 (UNS S41600) is one of the most free‑machining martensitic stainless steels, enhanced with sulfur to improve turning, drilling, and threading performance. As a typical free‑machining stainless steel, it offers excellent machinability while maintaining
- Read more »
- 410 Stainless Steel Composition & Martensitic Properties
- 410 (UNS S41000) is a martensitic stainless steel containing 11.5–13.5% chromium with very low nickel content. It is heat‑treatable and capable of achieving high strength and hardness through quenching and tempering. As a classic martensitic stainless ste
- Read more »
- 430 Stainless Steel Composition & Ferritic Corrosion‑Resistant Properties
- 430 (UNS S43000) is a ferritic stainless steel containing 16–18% chromium and no nickel, making it an economical corrosion‑resistant alloy. It offers good resistance in atmospheric and mildly corrosive environments but is less resistant to chlorides compa
- Read more »
- 310S Stainless Steel Composition & High‑Temperature Oxidation Resistance
- 310S (UNS S31008) is a high‑temperature austenitic stainless steel with 24–26% chromium and 19–22% nickel. Its high chromium‑nickel content provides outstanding oxidation resistance and structural stability during long‑term exposure at 1050–1150°C. The lo
- Read more »
- 321H Stainless Steel Composition & High‑Temperature Strength
- 321H (UNS S32109) is the high‑carbon, titanium‑stabilized variant of 321 stainless steel. With 17–19% chromium, 9–13% nickel, and titanium added to prevent carbide precipitation, it offers improved resistance to sensitization during high‑temperature servi
- Read more »
- ASTM A240 304H Stainless Steel Composition & High‑Temperature Strength
- ASTM A240 304H (UNS S30409) is the high‑carbon variant of the 304 austenitic stainless steel family. With 18–20% chromium, 8–11% nickel, and a carbon content of 0.04–0.10%, it provides improved creep strength and long‑term stability at elevated temperatur
- Read more »
- ASTM A240 904L Stainless Steel Composition & Super‑Austenitic Corrosion Resistance
- ASTM A240 904L (UNS N08904) is a super‑austenitic stainless steel grade under ASTM standards. With 19–23% chromium, 23–28% nickel, 4–5% molybdenum, and added copper, it provides exceptional corrosion resistance in highly aggressive environments such as su
- Read more »
- ASTM A240 317L Stainless Steel Composition & High‑Molybdenum Corrosion Resistance
- ASTM A240 317L (UNS S31703) is a high‑molybdenum, low‑carbon austenitic stainless steel grade under ASTM standards. With 18–20% chromium, 11–15% nickel, and 3–4% molybdenum, it provides significantly enhanced resistance to pitting and crevice corrosion in
- Read more »