Distributor, Importer, Stockist Of Hss, Alloy Steel, Tool Steel, Powder Metallurgy, Stainless Steel, High Temperature Alloys, Exotic Metals & Steels.

Group company of IMI Alloys LLP

Powder Metallurgy (PM) High Speed Steel is a premium tool steel manufactured using an advanced powder metallurgy process. It offers excellent wear resistance, high toughness, superior hardness, and outstanding heat resistance, making it suitable for demanding cutting and machining applications.

Available in grades such as ASP 2030, ASP 2023, ASP 2052, and ASP 2060, Powder Metallurgy High Speed Steel provides consistent material properties, improved cutting performance, and longer tool life. It is available in round bars, flat bars, blocks, square bars, sheets, and plates.

It is widely used in the manufacturing of drilling tools, milling cutters, turning tools, tapping tools, and broaching tools. Its excellent resistance to wear and high temperatures helps improve productivity, reduce tool replacement costs, and ensure reliable performance in industrial machining operations.

Key Characteristics of Powder Metallurgy (Pm) High Speed Steel

  • High Wear Resistance: Long tool life due to unique powder metallurgy process.
  • Excellent Toughness: High impact strength and resistance to shock
  • High Heat Resistance: Maintains hardness up to 6500c (12000F).
  • Improved Cutting Performance: Faster cutting speeds and better surface finish.

Applications

  • Drilling tools (twist drills, step drills)
  • Milling cutters (end mills, face mills)
  • Turning tools (lathe tools)
  • Tapping tools (hand taps, machine taps)
  • Broaching tools (surfacee intern l)

Benefits:

  • Increased Productivity: Longer tool life and reduced downtime.
  • Improved Accuracy: Reduced tool wear and vibration.
  • Cost-Effective: Extended tool life reduces replacement costs

Specifications & Standards

Specification Details
Product Powder Metallurgy (PM) High Speed Steel
Grades ASP 2030, ASP 2023, ASP 2052, ASP 2060
Manufacturing Process Powder Metallurgy Process
Hardness As per Grade and Heat Treatment
Wear Resistance Excellent wear and abrasion resistance
Toughness High toughness and impact resistance
Heat Resistance Maintains hardness at elevated temperatures up to approximately 650°C (1200°F)
Cutting Performance High cutting efficiency and improved tool life
Applications Drilling, Milling, Turning, Tapping and Broaching Tools
Suitable For High-performance cutting and machining applications requiring excellent wear resistance and toughness
Available Shapes Round Bars, Flat Bars, Square Bars, Blocks, Sheets and Plates

Frequently Asked Questions

Powder Metallurgy (PM) High Speed Steel is a high-performance tool steel manufactured using a powder metallurgy process. It offers a fine, uniform carbide structure that provides excellent wear resistance, toughness, hardness, and cutting performance compared with conventionally produced high speed steels.
PM High Speed Steel provides a combination of high hardness, superior wear resistance, good toughness, dimensional stability, and excellent edge retention. Its refined carbide distribution also helps reduce the risk of carbide segregation and supports consistent tool performance in demanding machining operations.
PM High Speed Steel is widely used for high-performance cutting tools and wear-resistant tooling. Typical applications include milling cutters, drills, taps, broaches, reamers, gear cutting tools, dies, punches, and other precision tools subjected to high cutting speeds, heavy loads, or abrasive wear.
The primary difference is the manufacturing process and resulting microstructure. PM High Speed Steel is produced from atomized metal powders that are consolidated under controlled conditions, creating a finer and more uniform carbide distribution. This can provide improved toughness, wear resistance, grindability, and overall tool life compared with conventional high speed steel grades.
PM High Speed Steel should be selected according to the required hardness, toughness, wear resistance, cutting conditions, workpiece material, and tool geometry. The appropriate grade depends on whether the application prioritizes high wear resistance, edge toughness, high-speed cutting performance, or a balance of these properties.