Overview
MTEK 115 is a heat-resistant alloy specifically formulated to withstand elevated temperatures without significant degradation or loss of mechanical properties. This alloy maintains its strength and structural integrity even under prolonged exposure to heat, making it suitable for demanding applications where components must operate reliably in high-temperature environments. MTEK 115 resists oxidation and creep, common phenomena that can compromise the performance of materials at elevated temperatures, ensuring long-term durability and reliability. Its ability to withstand heat makes it a valuable choice for industries such as aerospace, power generation, and heat treating, where components are subjected to extreme thermal conditions.
Typical Uses
Petrochemical applications.
MetalTek Designation
MTEK 115
Poured At:
Sandusky International Division, Wisconsin Investcast Division
Similar Specifications
Typical Chemical Composition (% by wt.)
Aluminum: n/a
Carbon: 0.08-0.18
Chromium: 10.0-12.5
Manganese: 0.50-1.25
Iron: n/a
Copper: n/a
Nickel: 1.50 MAX
Lead: n/a
Tin: n/a
Silicon: 1.00
Zinc: n/a
Other: Mo 0.50-1.0; Nb 0.20-0.60; V
Minimum Mechanical Properties
Heat Treatment: Hardened & Tempered
Frequently Asked Questions
Martensitic steel is a magnetic stainless steel that is heat-treatable and used for applications requiring high hardness.
Martensitic steel is used in chemical and food processing equipment, impellers, turbine engine components, and wear-resistant parts where hardness and strength are critical.
Austenitic steel is non-magnetic, corrosion-resistant, and ductile. Martensitic steel is magnetic, harder, heat-treatable, and more wear-resistant but less corrosion-resistant.
Martensitic steel offers high hardness, wear resistance, and strength after heat treatment, ideal for demanding mechanical applications.
Yes, martensitic steel can be heat treated through quenching and tempering to increase hardness and mechanical performance.
Yes, martensitic stainless steel is magnetic due to its body-centered tetragonal (BCT) structure after quenching.