Selling-list
Selling-list
- ASTM A240 316L Stainless Steel Composition & Low‑Carbon Corrosion Resistance
- ASTM A240 316L (UNS S31603) is the low‑carbon variant of the 316 molybdenum‑alloyed austenitic stainless steel family. With 16–18% chromium, 10–14% nickel, 2–3% molybdenum, and a carbon content below 0.03%, it minimizes sensitization during welding and en
- Read more »
- ASTM A240 316 Stainless Steel Composition & Corrosion‑Resistant Properties
- ASTM A240 316 (UNS S31600) is a molybdenum‑alloyed austenitic stainless steel grade under ASTM standards. With 16–18% chromium, 10–14% nickel, and 2–3% molybdenum, it offers significantly improved resistance to pitting and crevice corrosion in chloride‑ri
- Read more »
- ASTM A240 304L Stainless Steel Composition & Low‑Carbon Properties
- ASTM A240 304L (UNS S30403) is the low‑carbon variant of the 304 austenitic stainless steel family. With 18–20% chromium, 8–12% nickel, and a carbon content below 0.03%, it minimizes carbide precipitation during welding, significantly improving resistance
- Read more »
- ASTM A240 305 Stainless Steel Composition & Low Work‑Hardening Properties
- ASTM A240 305 (UNS S30500) is a low work‑hardening austenitic stainless steel grade under ASTM standards. With 17–19% chromium and 10.5–13% nickel, it maintains a stable austenitic structure, providing excellent deep‑drawing and stretching performance.
- Read more »
- ASTM A240 303 Stainless Steel Composition & Free‑Machining Properties
- ASTM A240 303 (UNS S30300) is the free‑machining austenitic stainless steel grade under ASTM standards. With 17–19% chromium, 8–10% nickel, and elevated sulfur content, it provides excellent machinability for turning, drilling, and threading operations.
- Read more »
- ASTM A240 347 Stainless Steel Composition & High‑Temperature Stability
- ASTM A240 347 (UNS S34700) is a niobium‑stabilized austenitic stainless steel grade under ASTM standards. With 17–19% chromium, 9–13% nickel, and niobium added in proportion to carbon content, it prevents carbide precipitation during welding or elevated‑t
- Read more »
- ASTM A240 321 Stainless Steel Composition & High‑Temperature Stability
- ASTM A240 321 (UNS S32100) is a titanium‑stabilized austenitic stainless steel grade under ASTM standards. With 17–19% chromium, 9–12% nickel, and titanium added in proportion to carbon content, it prevents carbide precipitation during welding or elevated
- Read more »
- ASTM A240 304LN Stainless Steel Composition & Nitrogen‑Enhanced Properties
- ASTM A240 304LN (UNS S30453) is a nitrogen‑enhanced, low‑carbon austenitic stainless steel grade under ASTM standards. With 18–20% chromium, 8–12% nickel, and added nitrogen, it provides higher yield strength, improved pitting resistance, and enhanced wel
- Read more »
- ASTM A240 304L Stainless Steel Composition & Low‑Carbon Properties
- ASTM A240 304L (UNS S30403) is the low‑carbon variant of the 304 austenitic stainless steel family. With 18–20% chromium, 8–12% nickel, and a carbon content below 0.03%, it minimizes carbide precipitation during welding, significantly improving resistance
- Read more »
- ASTM A240 304 Stainless Steel Composition & General‑Purpose Properties
- ASTM A240 304 (UNS S30400) is the most widely used austenitic stainless steel grade under ASTM standards. With 18–20% chromium and 8–10.5% nickel, it is commonly known as “18‑8 stainless steel.” It offers a balanced combination of corrosion resistance, fo
- Read more »
- ASTM A240 201 Stainless Steel Composition & Cost‑Efficient Austenitic Properties
- ASTM A240 201 (UNS S20100) is an economical austenitic stainless steel grade under ASTM standards. By reducing nickel content and adding manganese to stabilize the austenitic structure, it offers a cost‑efficient alternative to 304. Its composition includ
- Read more »
- ASTM A240 301LN Stainless Steel Composition & Work‑Hardening Properties
- ASTM A240 301LN (UNS S30153) is a nitrogen‑alloyed, high‑strength austenitic stainless steel grade under ASTM standards. With 16–18% chromium, 6–8% nickel, and added nitrogen, it provides higher yield strength, improved work‑hardening capability, and enha
- Read more »