Corrosion Resistant 316 Stainless Steel Plate - Austenitic Stainless Steel, Used for Chemical Equipment

• Kilns

• Heat Exchangers

• Radiant Tubes

• Muffles, retorts, annealing covers

• Tube hangers for petroleum refiing adn steam boilers

• Coal gasifier internal components

• Saggers

• Furnace parts, conveyor belts, rollers, oven linings, fans

• Food processing equipment

• Cryogenic structures

ASTM........A 240
ASME........SA 240
AMS..........5521

Wet Corrosion
Alloy 310 is not designed for service in wet corrosive environments. The high carbon content, which is present to enhance creep properties, has a detrimental effect on aqueous corrosion resistance. The alloy is prone to intergranular corrosion after long term exposure at high temperatures. However, due to its high chromium content (25%), Alloy 310 is more corrosion resistant than most heat resistant alloys.

High Temperature Corrosion
The high chromium (25%) and silicon (0.6%) content of Alloy 310 make it more resistant to high temperature corrosion in most in-service environments. Operating temperatures are listed below.

Oxidizing conditions (max sulfur content - 2 g/m3)
1922°F (1050°C) continuous service
2012°F (1100°C) peak temperature

Oxidizing conditions (max sulfur greater than 2 g/m3)
1742°F (950°C) maximum temperature

Low oxygen atmosphere (max sulfur content - 2 g/m3)
1832°F (1000°C) maximum temperature

Nitriding or carburizing atmospheres
1562 - 1742°F (850 - 950°C) maximum

The alloy does not perform as well as Alloy 600 (UNS N06600) or Alloy 800 (UNS N08800) in reducing, nitriding or carburizing atmospheres, but it does outperform most heat resistant stainless steels in these conditions.

310 Stainless Steel Chemical Composition

310 Stainless Steel Mechanical Properties