Alloy Grade UNS: C92500 – Leaded Tin Bronze

  • Overview

    C92500, known as leaded tin bronze, is a copper alloy that strikes a beneficial balance between strength and machinability. The addition of lead to this tin bronze formulation enhances its ability to be readily machined, making it well-suited for the efficient production of intricate parts. While maintaining good strength properties, this alloy offers improved cutting speeds and extended tool life during machining operations. This combination of characteristics makes C92500 a cost-effective choice for applications where ease of fabrication and precise tolerances are paramount.

  • Typical Uses

    Gears.

  • MetalTek Grade

    MTEK 87-11-0-1

Similar Specifications

Cast UNS: C92500

Cast Grade: C92500

Cast ASTM: B505

Military/AMS: QQ-C-390B

Typical Chemical Composition (% by wt.)

Aluminum: n/a

Carbon: n/a

Chromium: n/a

Manganese: n/a

Iron: n/a

Copper: 87

Nickel: 1

Lead: 1

Tin: 11

Silicon: n/a

Zinc: n/a 1

Minimum Mechanical Properties

Tensile, ksi

0

Tensile, MPa

0

Yield, ksi

0

Yield, MPa

0

Elongation

0%

Explore Other Alloys

Gears

Non-Ferrous

Non-ferrous alloys are, literally, materials that are not iron-based. While others may provide non-ferrous materials of other materials, the MetalTek family of non-ferrous alloys are copper-based. In general, these materials deliver high strength, and excellent wear and corrosion resistance. They are often found in marine applications and also bushing, bearing, and gear environments.
Stainless Steel Parts

Stainless Steel

Stainless steels owe their ability to resist corrosion primarily to the presence of a passive film on their surface. Chromium is chiefly responsible for formation of the passive film. Iron ceases to rust at approximately 12% chromium content and resistance to oxidizing corrosives increases rapidly with chromium content up to approximately 20%.
Petrochemical Fittings

Specialty Alloys

Specialty Alloys comprise a broad group of materials that deliver properties for more demanding applications, use more exotic or expensive materials, or require special processes to manufacture. Where standard materials may not offer desired performance, specialty alloys (including those that are modified further) may be a sensible selection.