• 9341 Penn Ave S, Bloomington, MN 55431
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The specialty stainless steels we stock are high-performance alloys engineered for enhanced strength, corrosion resistance, and durability in demanding environments. Certified for use in medical, aerospace, and chemical applications, our steels are tailored through precise chemistries and heat treatments to meet the specific mechanical properties you need for your applications.

13-8 MO Stainless Steel

At a Glance

Property Details
Available Forms Plate, Sheet/Strip, Round Bar, Rod, Wire
Alloy Type Precipitation-Hardening Stainless Steel
Corrosion Resistance Excellent resistance to general corrosion and stress corrosion cracking
Hardness Heat treatable to a wide range of strength and hardness levels
Durability Outstanding combination of strength, toughness, and ductility
Key Advantages High strength, excellent toughness, good corrosion resistance, vacuum-melted cleanliness
Common Applications Aerospace components, landing gear parts, fasteners, fittings, valves, nuclear reactor components
Specifications AMS 5629, AMS 2300, ASTM A564, UNS S13800

13-8MO VM is a precipitation hardened, vacuum melted stainless steel alloy with a toughness especially suited for the aerospace and nuclear energy industries. Its ability to be heat treated makes it extremely valuable when hardness and stress corrosion in severe conditions are the main concern.

This alloy features excellent strength and hardness, high resistance to both general and stress corrosion, and high ductility.

These properties make it especially useful for aircraft engine and landing gear parts, fittings, pins, fasteners, and valves. 13-8MO is also widely used in nuclear reactor components.

Chemical Data, Mechanical Properties and Specifications for 13-8 MO Stainless Steel

Chemical Range
Element Minimum Maximum
Aluminum 0.9 1.35
Carbon -- 0.05
Chromium 12.25 13.25
Iron Balance --
Manganese -- 0.2
Molybdenum 2 2.5
Nickel 7.5 8.5
Nitrogen -- 0.01
Phosphorus -- 0.01
Silicon -- 0.1
Sulphur -- 0.008

 

Typical Mechanical Properties
Temper Tensile Strength Yield Strength Elongation at Break
H950 225 ksi 210 ksi 12.0%
H1050 190 ksi 180 ksi 15.0%
H1150 145 ksi 105 ksi 20.0%

 

Specifications
AMS 5629
AMS 2300
ASTM A564
UNS S13800

15-5 PH Stainless Steel

At a Glance

Property Details
Available Forms Round Bar, Rod, Flat Bar, Plate, Sheet/Strip, Wire
Alloy Type Martensitic Precipitation-Hardening Stainless Steel
Corrosion Resistance Excellent corrosion resistance, superior to many conventional stainless steels
Hardness Heat treatable to high strength and hardness levels while maintaining toughness
Durability Outstanding combination of strength, toughness, and fatigue resistance
Machinability & Weldability Readily machined and highly weldable
Key Advantages High strength, excellent corrosion resistance, good toughness, and reliable heat-treatment response
Common Applications Aerospace structural components, gears, shafts, valves, engine parts, and nuclear reactor components
Specifications AMS 5659, AMS 2300, ASTM A564, AMS 5862, UNS S15500
 

15-5 PH is a martensitic precipitation hardened stainless steel favored by the aerospace industry. Its roles in this industry include:

  • Structural components
  • Gears, shafts, and valves
  • Engine parts
  • Nuclear reactor components

15-5 PH stainless steel consists of 15% chromium, 5% nickel, and has excellent corrosion resistance. It was specifically designed to be stronger than 17-4 steel, its predecessor, and can be further reinforced by undergoing heat treatment. In addition to being used in aerospace, it is also utilized in chemical, paper, and food processing industries.

15-5 PH is very weldable and can be readily machined to meet required shapes and conditions.

Chemical Data, Mechanical Properties and Specifications for 15-5 PH Stainless Steel

Chemical Range

Element Minimum Maximum
Carbon -- 0.07
Chromium 14 15.5
Copper 2.5 4.5
Iron Balance --
Manganese -- 1
Nickel 3.5 5.5
Niobium 0.15 0.45
Phosphorus -- 0.04
Silicon -- 1
Sulphur -- 0.03

Typical Mechanical Properties

Temper Tensile Strength Yield Strength Elongation at Break
H900 200 ksi 185 ksi 10.0%
H1050 170 ksi 165 ksi 12.0%
H1150 145 ksi 125 ksi 15.0%

Specifications

  • AMS 5659, Type 1 (Vac Melt Bar)
  • AMS 5659, Type 2 (ESR Bar)
  • AMS 2300 (Bar)
  • ASTM A564 (Bar)
  • Type XM-12 (Bar)
  • AMS 5862 (Sheet)
  • UNS S15500

17-4PH Stainless Steel

At a Glance

Property Details
Available Forms Round Bar, Flat Bar, Plate, Sheet/Strip, Wire, Tube
Alloy Type Precipitation-Hardening Martensitic Stainless Steel
Corrosion Resistance Excellent corrosion resistance, comparable to 304 stainless steel in many environments
Hardness Heat treatable to a wide range of strength and hardness levels
Durability Exceptional combination of strength, toughness, and wear resistance
Key Advantages High strength, good corrosion resistance, excellent mechanical properties, and dimensional stability during heat treatment
Common Applications Aerospace components, oil & gas equipment, medical instruments, marine hardware, petrochemical and nuclear components
Specifications AMS 5643, AMS 2303, ASTM A484, ASTM A564, AMS 5604, ASTM A693, UNS S17400
 

Introduction to 17-4PH Stainless Steel

17-4PH Stainless Steel, also known as Grade 630, is a precipitation-hardening martensitic stainless steel that combines high strength, hardness, and corrosion resistance. This alloy is widely used in industries such as aerospace, petrochemical, and marine applications, where superior performance under stress and corrosive environments is critical. Its ability to achieve high strength through heat treatment makes it a versatile choice for components requiring durability and resistance to wear.

High Strength Through Heat Treatment

One of the defining characteristics of 17-4PH Stainless Steel is its ability to reach high strength levels through a process of precipitation hardening. By applying heat treatment, 17-4PH can be tuned to achieve a variety of mechanical properties, making it ideal for applications that demand specific hardness and tensile strength. Its strength and toughness remain consistent across a range of temperatures, providing excellent performance in high-stress environments.

Corrosion Resistance and Durability

17-4PH offers excellent corrosion resistance, comparable to 304 stainless steel in many environments, making it well-suited for applications in chemical processing, marine environments, and oil and gas industries. Its combination of strength and corrosion resistance allows for long-lasting performance, even in demanding operating conditions.

Applications of 17-4PH Stainless Steel

17-4PH Stainless Steel’s versatility and mechanical properties make it a preferred material for a variety of demanding applications:

  • Aerospace Components: Used in aircraft structural parts, turbine blades, and engine components where high strength-to-weight ratios are critical.
  • Oil and Gas Equipment: Ideal for valves, fittings, and fasteners exposed to high pressures and corrosive environments.
  • Medical Instruments: Frequently used for surgical instruments and medical devices that require high durability and corrosion resistance.
  • Marine Applications: Well-suited for shafts, pumps, and components where both strength and corrosion resistance are essential.
  • Nuclear and Petrochemical Industries: Used for parts that require both high strength and resistance to aggressive chemicals.

Chemical Data, Mechanical Properties and Specifications for 17-4PH Stainless Steel

Chemical Range

Element Minimum Maximum
Carbon -- 0.07
Chromium 15 17.5
Copper 3.0 5.0
Iron Balance --
Manganese -- 1.0
Nickel 3 5
Niobium -- 0.45
Niobium + Tantalum 0.15 0.45
Phosphorus -- 0.040
Silicon -- 1
Sulphur -- 0.030

Typical Mechanical Properties

Temper Tensile Strength Yield Strength Elongation at Break
H1025 168 ksi 162 ksi 16.0%
H1075 164 ksi 148 ksi 17.0%
H1150 144 ksi 126 ksi 20.0%

Specifications

  • AMS 5643 (Bar)
  • AMS 2303 (Bar)
  • ASTM A484 (Bar)
  • ASTM A564 (Bar)
  • Project 70™ (Bar)
  • Custom 630™ (Bar)
  • AMS 5604 (Sheet & Plate)
  • ASTM A693 (Sheet & Plate)
  • UNS S17400

316 LVM Stainless Steel

At a Glance

Property Details
Available Forms Rod, Wire, Sheet/Strip, Tube
Alloy Type Vacuum-Melted Implant Grade Austenitic Stainless Steel
Corrosion Resistance Excellent corrosion resistance in physiological and medical environments
Hardness Available in annealed, cold-worked, and extra-hard conditions
Durability Designed for long-term performance in implantable and surgical applications
Key Advantages High purity, enhanced biocompatibility, low carbon content, and excellent surface integrity
Common Applications Orthopedic implants, cardiac stents, dental implants, catheters, bone pins, surgical clips, staples, and orthopedic cables
Specifications ASTM F138, ASTM F139, UNS S31673
 

316 LVM Stainless Steel, often referred to as surgical grade stainless steel or implant grade stainless steel, is our most commonly sold medical stainless steel. Breaking down the name, this is a low-carbon version of 316 that has been either electro slag remelted or vacuum arc remelted to reduce impurities.

This process removes impurities and helps to form a more effective chromium oxide layer on the surface of the material than ordinary stainless steel. This layer helps hold nickel inside the bar, reducing the likelihood of nickel release. This protective surface also helps increase the length of time an implant can remain in the body without leaching into the surrounding tissues.

The medical manufacturing market is stable and largely staying within the United States of America. With our knowledge and your skill, we can help you break into this market and help secure the future of your company.

We have no minimum order and are happy to quote in less than full bar lengths. Get only what you need, usually cut and shipped the day you order.

All material comes complete with mill test reports certifying the material to ASTM F138 surgical implant grade and is precision ground to ±.0005 for bar or to ASTM F139 for sheet.

Typical Uses for 316 LVM

  • Orthopedic implants, permanent and temporary
  • Cardiac stents
  • Dental implants
  • Catheters
  • Bone pins
  • Suture wires
  • Surgical clips and staples
  • Stylets
  • Orthopedic cables

Chemical Data, Mechanical Properties and Specifications for 316 LVM Stainless Steel

Chemical Range

Element Minimum Maximum
Carbon -- 0.030
Chromium 17 19
Copper -- 0.50
Iron Balance --
Manganese -- 2.0
Molybdenum 2.25 3.0
Nickel 13.00 15.00
Nitrogen -- 0.10
Phosphorus -- 0.025
Silicon -- 0.75
Sulphur -- 0.010

Mechanical Properties Per ASTM F138 Bar

Condition Tensile Strength Yield Strength Elongation in 4D
Annealed (.063" and over) 71.0 ksi min 27.5 ksi min 40%
Cold Worked (.063" to 1.50") 125 ksi 100 ksi 12%
Extra-hard (.063" to .250") 196 ksi No requirement No requirement

Specifications

  • ASTM F138 (Rod and Flat Bar)
  • ASTM F139 (Sheet)
  • UNS S31673

330 Stainless Steel

At a Glance

Property Details
Available Forms Rod, Plate, and Sheet
Alloy Type High-Nickel Austenitic Stainless Steel
Corrosion Resistance Excellent resistance to oxidation, carburization, and thermal cycling
Hardness Non-heat-treatable; strengthened by cold working
Maximum Service Temperature Excellent performance in continuous high-temperature service
Key Advantages Outstanding oxidation resistance, high nickel content, excellent thermal stability, and resistance to stress corrosion cracking
Common Applications Heat-treating fixtures, furnace components, petrochemical equipment, ore processing, food processing, and conveyors
Specifications AMS 5716, ASTM SB-511, ASTM SB-536, UNS N08330
 

330 Stainless Steel is a high-nickel austenitic stainless steel containing nickel, chromium, iron, and silicon. Its exceptional resistance to oxidation, carburization, and thermal cycling is primarily due to its high nickel content of 34–37%, combined with chromium and silicon.

Unlike precipitation-hardening or martensitic stainless steels, Alloy 330 cannot be hardened through heat treatment and is strengthened only by cold working. However, its ability to retain strength and resist scaling at elevated temperatures makes it an excellent material for furnace fixtures, heat-treating equipment, and other components operating in extreme heat.

Its outstanding high-temperature corrosion resistance and resistance to stress corrosion cracking make Alloy 330 ideal for applications such as:

  • Petrochemical furnace components
  • Heat-treating fixtures and baskets
  • Ore processing equipment
  • High-temperature fans
  • Food processing equipment
  • Industrial conveyors

Chemical Data, Mechanical Properties and Specifications for 330 Stainless Steel

Chemical Range for 330

Element Minimum Maximum
Carbon -- 0.08
Chromium 17.0 20.0
Copper -- 1.00
Iron Balance --
Lead -- 0.005
Manganese -- 2.0
Nickel 34.00 37.00
Phosphorus -- 0.03
Silicon 0.75 1.50
Sulphur -- 0.03
Tin -- 0.025

Typical Mechanical Properties for 330

Form Tensile Strength Yield Strength Elongation at Break
Annealed Bar 84.8 ksi 42.1 ksi 45%
Annealed Sheet 79.8 ksi 37.7 ksi 40%
Annealed Strip 79.8 ksi 37.7 ksi 40%
Annealed Plate 89.9 ksi 37.7 ksi 45%

Specifications

  • AMS 5716 (Bar)
  • ASTM SB-511 (Bar)
  • ASTM SB-536 (Sheet & Plate)
  • UNS N08330

416 Stainless Steel

At a Glance

Property Details
Available Forms Rod, Bar, and Plate
Alloy Type Free-Machining Martensitic Stainless Steel
Corrosion Resistance Moderate corrosion resistance; lower than austenitic grades such as 304 and 316
Hardness Heat treatable to achieve increased hardness and strength
Durability Good strength, wear resistance, and durability in machined components
Machinability Excellent machinability and commonly regarded as the most machinable stainless steel grade
Key Advantages Fast machining, good strength, heat-treatable hardness, and reduced production costs for high-volume parts
Common Applications Valve components, screw-machine parts, motor components, nuts, bolts, washing-machine parts, cutlery, and kitchen utensils
Specifications AMS 5610, ASTM A582, UNS S41600
 

416 Stainless Steel is a free-machining martensitic stainless steel known for its excellent machinability, good strength, and ability to be hardened through heat treatment. Sulfur is added to improve chip breaking and reduce cutting-tool wear, making 416 particularly suitable for parts requiring extensive drilling, threading, turning, or other high-speed machining operations.

Often described as the most machinable of the standard stainless steel grades, 416 is well suited for high-volume production of detailed components. Its machinability is commonly rated at approximately 85% relative to free-machining carbon steel, although the exact rating can vary with the reference material and machining conditions.

As a martensitic stainless steel, 416 can be hardened and tempered to obtain different combinations of strength, hardness, and toughness. It is also magnetic in both the annealed and hardened conditions. These characteristics make it useful for components that require more strength and wear resistance than typical austenitic stainless steels.

The sulfur that gives 416 its outstanding machinability also reduces its corrosion resistance, toughness, formability, and weldability. It provides moderate corrosion resistance in mild atmospheres, fresh water, steam, and some weakly corrosive environments, but it is not generally recommended for marine service or prolonged exposure to chlorides and aggressive chemicals. Its best corrosion resistance is normally obtained with a smooth, clean surface and proper heat treatment.

Welding is possible but is generally avoided because 416 is susceptible to cracking in the weld and heat-affected zones. When welding is required, carefully controlled preheating, filler-metal selection, and post-weld heat treatment may be necessary.

Common applications for 416 Stainless Steel include:

  • Valve and pump components
  • Screw-machine parts
  • Shafts, gears, and pinions
  • Electrical motor components
  • Nuts, bolts, screws, and fasteners
  • Instrument and appliance components
  • Washing-machine parts
  • Cutlery and kitchen utensils

We supply 416 Stainless Steel in rod, bar, and plate, with material certification available to applicable specifications.

Chemical Data, Mechanical Properties and Specifications for 416 Stainless Steel

Chemical Range for 416

Element Minimum Maximum
Carbon -- 0.15
Chromium 12.0 14.0
Iron Balance --
Manganese -- 1.25
Molybdenum -- 0.60
Phosphorus -- 0.060
Silicon -- 1.00
Sulphur -- 0.15

Typical Mechanical Properties for 416

Form Tensile Strength Yield Strength Elongation at Break
Annealed Bar 74.7 ksi 39.9 ksi 30%
Cold Drawn Rod/Wire 89.9 ksi 79.8 ksi 10%
Heat Treated Rod/Wire 135.0 ksi 105.0 ksi 5%

Specifications

  • AMS 5610 (Bar)
  • ASTM A582 (Bar)
  • UNS S41600

420 MOD Stainless Steel

At a Glance

Property Details
Available Forms Round Bar
Alloy Type Modified Martensitic Stainless Steel
Corrosion Resistance Good corrosion resistance in mild environments, with improved performance compared to many standard high-carbon martensitic grades
Hardness Heat treatable to high hardness levels for wear resistance and edge retention
Durability Excellent combination of strength, toughness, and wear resistance for demanding applications
Machinability Improved machinability compared with many high-hardness stainless grades
Key Advantages High strength, good toughness, excellent wear resistance, edge retention, and medical-grade suitability
Common Applications Surgical instruments, dental instruments, cutlery, blades, industrial tools, molds, dies, and wear-resistant components
Specifications ASTM F899, DIN X40CrMoVN16-2, AMS 5925 chemistry, UNS S42025, Chronifer® M-15 KL, X15TN®
 

420 Modified Stainless Steel – Enhanced Strength and Machinability

Introduction to 420 Modified Stainless Steel

420 Modified Stainless Steel is a variation of standard 420 Stainless, offering improved strength, ductility, and machinability. While regular 420 Stainless Steel is primarily known for its hardness and corrosion resistance, 420 Modified is engineered to deliver superior mechanical properties, making it ideal for applications requiring higher strength and wear resistance. It is commonly used in industries such as medical, cutlery, and industrial tools where high durability is a must.

Differences Between 420 and 420 Modified Stainless Steel

The main difference between 420 Stainless Steel and 420 Modified Stainless Steel lies in the mechanical enhancements. While standard 420 is known for its ability to achieve high hardness after heat treatment, 420 Modified offers improved strength and toughness with better machinability. The modified version has an adjusted chemistry, including carbon, chromium, molybdenum, and vanadium, helping it provide a strong balance of hardness, toughness, wear resistance, and corrosion resistance.

Strength, Hardness, and Wear Resistance

420 Modified Stainless Steel is highly regarded for its balance of strength, hardness, and wear resistance. After heat treatment, this alloy can achieve high hardness, making it an excellent choice for components exposed to abrasion or wear. However, it stands out from regular 420 by offering greater toughness, reducing the risk of cracking or brittle failure, even in high-stress applications.

Corrosion Resistance and Durability

Like standard 420 Stainless, 420 Modified Stainless Steel provides good corrosion resistance in mild environments. It is particularly useful in situations where both corrosion resistance and high hardness are required. This makes it suitable for applications in the medical, cutlery, and tooling industries, where durability and long-term performance are critical.

Applications of 420 Modified Stainless Steel

Thanks to its enhanced mechanical properties, 420 Modified Stainless Steel is a versatile material used across a range of industries:

  • Medical Instruments: Ideal for surgical tools and dental instruments requiring high hardness and corrosion resistance.
  • Cutlery and Blades: Used for high-quality knives, scissors, and cutting tools that need superior wear resistance and edge retention.
  • Industrial Tools: Suitable for punches, dies, and other tooling that requires a tough, wear-resistant material.
  • Automotive Components: Used in parts like shafts and springs where both hardness and wear resistance are necessary.
  • Molds and Dies: Used in plastic molding and die-casting where both corrosion resistance and strength are needed.

Buy 420 Modified Stainless Steel From M. Vincent

At M. Vincent, we supply 420 Modified Stainless Steel in round bar to meet the requirements of industries like medical, tooling, and automotive. We offer competitive pricing, fast delivery, and expert support to ensure you receive the best materials for your project. Contact us today to learn more or to request a quote.

Chemical Data, Mechanical Properties and Specifications for 420 MOD Stainless Steel

Chemical Range for 420 MOD

Element Minimum Maximum
Carbon 0.37 0.45
Chromium 15.0 16.0
Iron Balance --
Manganese -- 0.60
Molybdenum 1.50 1.90
Nickel 0.15 0.25
Phosphorus -- 0.02
Silicon -- 0.60
Sulphur -- 0.005
Vanadium 0.20 0.40

Typical Mechanical Properties for 420 MOD

Form Tensile Strength Yield Strength Elongation at Break
Annealed Bar 100 ksi 80 ksi to 95 ksi 20%

Specifications

  • ASTM F899
  • DIN X40CrMoVN16-2
  • AMS 5925 chemistry
  • UNS S42025
  • Chronifer® M-15 KL
  • X15TN®

420F Stainless Steel

At a Glance

Property Details
Available Forms Round Bar
Alloy Type Free-Machining Martensitic Stainless Steel
Corrosion Resistance Good corrosion resistance in mild environments, but lower than standard 420 due to added sulfur
Hardness Heat treatable to high hardness levels for wear resistance and durable edges
Durability Good strength and wear resistance for precision-machined components
Machinability Excellent machinability due to sulfur addition, making it well suited for high-volume machining
Key Advantages Easy machining, heat-treatable hardness, good strength, wear resistance, and dimensional precision
Common Applications Surgical instruments, dental instruments, shafts, valves, fasteners, cutting tools, blades, gears, bearings, and precision machine components
Specifications AMS 5620 Type 2, ASTM A582, ASTM A484, UNS S42020
 

Introduction to 420F Stainless Steel

420F Stainless Steel is a free-machining version of 420 martensitic stainless steel. Known for its excellent machinability and ability to achieve high hardness through heat treatment, 420F is commonly used in applications that require precision machining, good strength, and wear resistance.

It is widely used in industries such as medical instruments, automotive components, and industrial tools, where accurate machining and repeatable production are important.

Differences Between 420 and 420F Stainless Steel

420F Stainless Steel stands out from standard 420 due to its enhanced machinability, which is achieved by adding sulfur to the alloy composition. This allows for easier and faster machining, making it useful for high-volume production runs and parts with tight tolerances.

While 420F maintains many of the properties of standard 420, including the ability to be hardened by heat treatment, the sulfur addition slightly reduces its corrosion resistance compared to standard 420 or 420 Modified. For this reason, 420F is generally selected when machinability and hardness are more important than maximum corrosion resistance.

Strength, Hardness, and Machinability

420F Stainless Steel is known for its excellent machinability, making it a good choice for manufacturing complex parts with tight tolerances. It can be machined into detailed shapes while still offering good strength and wear resistance.

After heat treatment, 420F can achieve high hardness, making it suitable for components exposed to wear or requiring a durable edge, such as cutting tools, blades, shafts, valves, and precision machine components.

Corrosion Resistance and Durability

Because of its sulfur content, 420F does not offer the same level of corrosion resistance as standard 420 or 420 Modified. However, it still provides good corrosion resistance in mild environments where exposure to aggressive chemicals, chlorides, or marine conditions is limited.

Its primary advantage is the combination of machinability, strength, and heat-treatable hardness. This makes it a practical choice for applications where precision machining is required and corrosion exposure is not severe.

Applications of 420F Stainless Steel

420F Stainless Steel is widely used in applications that require easy machinability, strength, and wear resistance:

  • Medical Instruments: Used in precision surgical tools and dental instruments that require both hardness and machinability. Because 420F contains added sulfur for machinability, suitability should be confirmed for the specific medical application.
  • Automotive Parts: Suitable for shafts, valves, and fasteners where high machining accuracy and strength are needed.
  • Cutlery and Blades: Used for knife blades and cutting tools that require hardness and wear resistance.
  • Industrial Tools: Useful for high-precision tools such as drills, taps, and dies.
  • Machine Components: Used in parts that require high machinability and precise manufacturing, such as gears, bearings, and precision-machined components.

Buy 420F Stainless Steel From M. Vincent

At M. Vincent, we supply 420F Stainless Steel in round bar to meet the needs of industries like medical, automotive, and tooling. We offer competitive pricing, fast delivery, and expert support to ensure you receive the right material for your project. Contact us today for more information or to request a quote.

Chemical Data, Mechanical Properties and Specifications for 420F Stainless Steel

Chemical Range for 420F

Element Minimum Maximum
Carbon 0.15 --
Chromium 12.0 14.0
Iron Balance --
Manganese -- 1.25
Molybdenum -- 0.60
Phosphorus -- 0.06
Silicon -- 1.00
Sulphur 0.15 --

Typical Mechanical Properties for 420F

Form Tensile Strength Yield Strength Elongation at Break
Annealed Bar 95 ksi 55.1 ksi 22%
Cold Drawn Bar 110 ksi 100 ksi 14%

Specifications

  • AMS 5620 Type 2 (Bar)
  • ASTM A582 (Bar)
  • ASTM A484 (Bar)
  • UNS S42020

430 Stainless Steel

At a Glance

Property Details
Available Forms Bar, Sheet, Foil, and Strip
Alloy Type Ferritic Straight-Chromium Stainless Steel
Corrosion Resistance Good corrosion and oxidation resistance in mild environments
Hardness Non-hardenable by heat treatment; may be strengthened through cold working
Durability Good durability for appliance, decorative, kitchen, and light industrial applications
Formability Good formability for bending, drawing, and stretch-forming operations
Key Advantages Magnetic, nickel-free, cost-effective, oxidation resistant, and suitable for decorative or functional stainless components
Common Applications Dishwasher linings, automotive trim, chimney liners, machine parts, kitchen tables, utensils, appliances, and food service equipment
Specifications AMS 5627, ASTM A276, ASTM A479, ASTM A240, UNS S43000
 

430 Stainless Steel is a ferritic, straight-chromium stainless steel known for its good corrosion resistance, oxidation resistance, formability, and cost effectiveness. Unlike austenitic stainless steels such as 304 and 316, 430 contains little to no nickel, making it a more economical option for applications that require stainless corrosion resistance but do not need the higher strength, ductility, or chloride resistance of nickel-bearing grades.

Because 430 is ferritic, it is magnetic and cannot be hardened by heat treatment. Instead, it is generally supplied in the annealed condition and may be strengthened through cold working. It performs well in mildly corrosive environments and offers good resistance to atmospheric corrosion, fresh water, food-related environments, and many indoor or decorative applications.

430 Stainless Steel is commonly formed using bending, drawing, stretch forming, and other cold-forming operations. It offers good formability, although it is not as ductile as austenitic stainless grades. Welding is possible, but 430 has lower weldability than many austenitic stainless steels and may require proper welding procedures to reduce brittleness or loss of corrosion resistance in the heat-affected area.

Although 430 Stainless Steel has a higher maximum carbon level than some other stainless grades, its ferritic straight-chromium structure is the main reason it is non-hardenable by heat treatment.

One important advantage of 430 Stainless Steel is its resistance to oxidation at elevated temperatures. It is often used where resistance to scaling, moderate heat, and general corrosion are needed. This makes it useful for both decorative and functional components across appliance, automotive, kitchen equipment, and light industrial applications.

430 Stainless Steel is widely used in products such as:

  • Dishwasher linings
  • Automotive trim
  • Chimney liners
  • Machine parts
  • Kitchen tables and utensils
  • Appliance panels and trim
  • Food service equipment
  • Decorative stainless components

Chemical Data, Mechanical Properties and Specifications for 430 Stainless Steel

Chemical Range for 430

Element Minimum Maximum
Carbon -- 0.12
Chromium 16.0 18.0
Iron Balance --
Manganese -- 1.0
Phosphorus -- 0.04
Silicon -- 1.00
Sulphur -- 0.03

Typical Mechanical Properties for 430

Form Tensile Strength Yield Strength Elongation at Break
Annealed Bar 75 ksi 45 ksi 30%
Cold Drawn Bar 85 ksi 70 ksi 20%
Annealed Plate 75 ksi 40 ksi 30%
Annealed Strip 75 ksi 50 ksi 25%

Specifications

  • AMS 5627 (Bar)
  • ASTM A276 (Bar)
  • ASTM A479 (Bar)
  • ASTM A240 (Sheet and Plate)
  • UNS S43000

430FR Stainless Steel

At a Glance

Property Details
Available Forms Rod
Alloy Type Ferritic Free-Machining Stainless Steel
Corrosion Resistance Good corrosion resistance in fresh water, mildly acidic, and low-chloride environments
Hardness Non-hardenable by heat treatment; generally supplied in the annealed condition
Magnetic Properties Designed for improved magnetic response and higher electrical resistivity
Machinability Enhanced machinability due to sulfur addition
Key Advantages Good magnetic performance, improved machinability, corrosion resistance, and dimensional stability
Common Applications Solenoid valves, injectors, magnetic cores, sensor components, and electromagnetic devices
Specifications ASTM A838 Alloy 2
 

430FR Stainless Steel is a ferritic stainless steel with increased silicon content, giving it improved magnetic characteristics and higher electrical resistivity. It is designed for applications that require a combination of magnetic performance, corrosion resistance, and machinability.

Compared with standard 430 stainless steel, 430FR contains added silicon and sulfur. The silicon helps improve magnetic response and electrical resistivity, while the sulfur improves machinability. This makes 430FR especially useful for precision-machined components used in electromagnetic and solenoid-operated devices.

430FR is commonly used in parts that require both corrosion resistance and magnetic performance, such as:

  • Solenoid valves
  • Injectors
  • Magnetic cores
  • Sensor components
  • Electromagnetic devices

430FR maintains good corrosion resistance in fresh water, mildly acidic environments, and low-chloride conditions. It is not intended to replace higher-corrosion-resistant stainless steels, such as 316, in severe chloride, marine, or highly corrosive environments. However, it is a strong choice for applications where corrosion resistance and magnetic performance are both important.

Because 430FR is ferritic, it is magnetic and non-hardenable by heat treatment. It is generally supplied in the annealed condition and is valued for stable magnetic response, dimensional stability, and reliable performance in precision-machined components.

430FR’s magnetic characteristics, machinability, and corrosion resistance make it useful in industries such as:

  • Aerospace
  • Automotive
  • Industrial manufacturing
  • Electromagnetic equipment

Chemical Data, Mechanical Properties and Specifications for 430FR Stainless Steel

Chemical Range for 430FR

Element Minimum Maximum
Carbon -- 0.07
Chromium 17.25 18.25
Iron Balance --
Manganese -- 0.80
Molybdenum -- 0.50
Nickel -- 0.60
Phosphorus -- 0.030
Silicon 1.00 1.50
Sulphur 0.250 0.400

Typical Mechanical Properties for 430FR

Form Tensile Strength Yield Strength Elongation at Break
Annealed Bar 78 ksi 50 ksi 30%

Specifications

  • ASTM A838 Alloy 2

430 Stainless Steel

At a Glance

Property Details
Available Forms Bar, Sheet, Foil, and Strip
Alloy Type Ferritic Straight-Chromium Stainless Steel
Corrosion Resistance Good corrosion and oxidation resistance in mild environments
Hardness Non-hardenable by heat treatment; may be strengthened through cold working
Durability Good durability for appliance, decorative, kitchen, and light industrial applications
Formability Good formability for bending, drawing, and stretch-forming operations
Key Advantages Magnetic, nickel-free, cost-effective, oxidation resistant, and suitable for decorative or functional stainless components
Common Applications Dishwasher linings, automotive trim, chimney liners, machine parts, kitchen tables, utensils, appliances, and food service equipment
Specifications AMS 5627, ASTM A276, ASTM A479, ASTM A240, UNS S43000
 

430 Stainless Steel is a ferritic, straight-chromium stainless steel known for its good corrosion resistance, oxidation resistance, formability, and cost effectiveness. Unlike austenitic stainless steels such as 304 and 316, 430 contains little to no nickel, making it a more economical option for applications that require stainless corrosion resistance but do not need the higher strength, ductility, or chloride resistance of nickel-bearing grades.

Because 430 is ferritic, it is magnetic and cannot be hardened by heat treatment. Instead, it is generally supplied in the annealed condition and may be strengthened through cold working. It performs well in mildly corrosive environments and offers good resistance to atmospheric corrosion, fresh water, food-related environments, and many indoor or decorative applications.

430 Stainless Steel is commonly formed using bending, drawing, stretch forming, and other cold-forming operations. It offers good formability, although it is not as ductile as austenitic stainless grades. Welding is possible, but 430 has lower weldability than many austenitic stainless steels and may require proper welding procedures to reduce brittleness or loss of corrosion resistance in the heat-affected area.

Although 430 Stainless Steel has a higher maximum carbon level than some other stainless grades, its ferritic straight-chromium structure is the main reason it is non-hardenable by heat treatment.

One important advantage of 430 Stainless Steel is its resistance to oxidation at elevated temperatures. It is often used where resistance to scaling, moderate heat, and general corrosion are needed. This makes it useful for both decorative and functional components across appliance, automotive, kitchen equipment, and light industrial applications.

430 Stainless Steel is widely used in products such as:

  • Dishwasher linings
  • Automotive trim
  • Chimney liners
  • Machine parts
  • Kitchen tables and utensils
  • Appliance panels and trim
  • Food service equipment
  • Decorative stainless components

Chemical Data, Mechanical Properties and Specifications for 430 Stainless Steel

Chemical Range for 430

Element Minimum Maximum
Carbon -- 0.12
Chromium 16.0 18.0
Iron Balance --
Manganese -- 1.0
Phosphorus -- 0.04
Silicon -- 1.00
Sulphur -- 0.03

Typical Mechanical Properties for 430

Form Tensile Strength Yield Strength Elongation at Break
Annealed Bar 75 ksi 45 ksi 30%
Cold Drawn Bar 85 ksi 70 ksi 20%
Annealed Plate 75 ksi 40 ksi 30%
Annealed Strip 75 ksi 50 ksi 25%

Specifications

  • AMS 5627 (Bar)
  • ASTM A276 (Bar)
  • ASTM A479 (Bar)
  • ASTM A240 (Sheet and Plate)
  • UNS S43000

430FR Stainless Steel

At a Glance

Property Details
Available Forms Rod
Alloy Type Ferritic Free-Machining Stainless Steel
Corrosion Resistance Good corrosion resistance in fresh water, mildly acidic, and low-chloride environments
Hardness Non-hardenable by heat treatment; generally supplied in the annealed condition
Magnetic Properties Designed for improved magnetic response and higher electrical resistivity
Machinability Enhanced machinability due to sulfur addition
Key Advantages Good magnetic performance, improved machinability, corrosion resistance, and dimensional stability
Common Applications Solenoid valves, injectors, magnetic cores, sensor components, and electromagnetic devices
Specifications ASTM A838 Alloy 2

430FR Stainless Steel is a ferritic stainless steel with increased silicon content, giving it improved magnetic characteristics and higher electrical resistivity. It is designed for applications that require a combination of magnetic performance, corrosion resistance, and machinability.

Compared with standard 430 stainless steel, 430FR contains added silicon and sulfur. The silicon helps improve magnetic response and electrical resistivity, while the sulfur improves machinability. This makes 430FR especially useful for precision-machined components used in electromagnetic and solenoid-operated devices.

430FR is commonly used in parts that require both corrosion resistance and magnetic performance, such as:

  • Solenoid valves
  • Injectors
  • Magnetic cores
  • Sensor components
  • Electromagnetic devices

430FR maintains good corrosion resistance in fresh water, mildly acidic environments, and low-chloride conditions. It is not intended to replace higher-corrosion-resistant stainless steels, such as 316, in severe chloride, marine, or highly corrosive environments. However, it is a strong choice for applications where corrosion resistance and magnetic performance are both important.

Because 430FR is ferritic, it is magnetic and non-hardenable by heat treatment. It is generally supplied in the annealed condition and is valued for stable magnetic response, dimensional stability, and reliable performance in precision-machined components.

430FR’s magnetic characteristics, machinability, and corrosion resistance make it useful in industries such as:

  • Aerospace
  • Automotive
  • Industrial manufacturing
  • Electromagnetic equipment

Chemical Data, Mechanical Properties and Specifications for 430FR Stainless Steel

Chemical Range for 430FR

Element Minimum Maximum
Carbon -- 0.07
Chromium 17.25 18.25
Iron Balance --
Manganese -- 0.80
Molybdenum -- 0.50
Nickel -- 0.60
Phosphorus -- 0.030
Silicon 1.00 1.50
Sulphur 0.250 0.400

Typical Mechanical Properties for 430FR

Form Tensile Strength Yield Strength Elongation at Break
Annealed Bar 78 ksi 50 ksi 30%

Specifications

  • ASTM A838 Alloy 2

430FR Stainless Steel

At a Glance

Property Details
Available Forms Rod
Alloy Type Ferritic Free-Machining Stainless Steel
Corrosion Resistance Good corrosion resistance in fresh water, mildly acidic, and low-chloride environments
Hardness Non-hardenable by heat treatment; generally supplied in the annealed condition
Magnetic Properties Designed for improved magnetic response and higher electrical resistivity
Machinability Enhanced machinability due to sulfur addition
Key Advantages Good magnetic performance, improved machinability, corrosion resistance, and dimensional stability
Common Applications Solenoid valves, injectors, magnetic cores, sensor components, and electromagnetic devices
Specifications ASTM A838 Alloy 2
 

430FR Stainless Steel is a ferritic stainless steel with increased silicon content, giving it improved magnetic characteristics and higher electrical resistivity. It is designed for applications that require a combination of magnetic performance, corrosion resistance, and machinability.

Compared with standard 430 stainless steel, 430FR contains added silicon and sulfur. The silicon helps improve magnetic response and electrical resistivity, while the sulfur improves machinability. This makes 430FR especially useful for precision-machined components used in electromagnetic and solenoid-operated devices.

430FR is commonly used in parts that require both corrosion resistance and magnetic performance, such as:

  • Solenoid valves
  • Injectors
  • Magnetic cores
  • Sensor components
  • Electromagnetic devices

430FR maintains good corrosion resistance in fresh water, mildly acidic environments, and low-chloride conditions. It is not intended to replace higher-corrosion-resistant stainless steels, such as 316, in severe chloride, marine, or highly corrosive environments. However, it is a strong choice for applications where corrosion resistance and magnetic performance are both important.

Because 430FR is ferritic, it is magnetic and non-hardenable by heat treatment. It is generally supplied in the annealed condition and is valued for stable magnetic response, dimensional stability, and reliable performance in precision-machined components.

430FR’s magnetic characteristics, machinability, and corrosion resistance make it useful in industries such as:

  • Aerospace
  • Automotive
  • Industrial manufacturing
  • Electromagnetic equipment

Chemical Data, Mechanical Properties and Specifications for 430FR Stainless Steel

Chemical Range for 430FR

Element Minimum Maximum
Carbon -- 0.07
Chromium 17.25 18.25
Iron Balance --
Manganese -- 0.80
Molybdenum -- 0.50
Nickel -- 0.60
Phosphorus -- 0.030
Silicon 1.00 1.50
Sulphur 0.250 0.400

Typical Mechanical Properties for 430FR

Form Tensile Strength Yield Strength Elongation at Break
Annealed Bar 78 ksi 50 ksi 30%

Specifications

  • ASTM A838 Alloy 2

440C Stainless Steel

At a Glance

Property Details
Available Forms Rod, Flat Bar, Plate
Alloy Type High-Carbon Martensitic Stainless Steel
Corrosion Resistance Good corrosion resistance in mild environments; better than free-machining 440 grades
Hardness Heat treatable to very high hardness levels, commonly up to Rockwell C 58–60
Durability Excellent wear resistance, edge retention, and strength for high-contact applications
Machinability Machinable in the annealed condition, but more difficult to machine than 440F or 440F Se
Key Advantages High hardness, excellent wear resistance, good edge retention, and moderate corrosion resistance
Common Applications Bearings, bushings, cutlery, blades, molds, dies, surgical instruments, dental instruments, and wear-resistant components
Specifications AMS 5630, ASTM A276, ASTM A240

Introduction to 440C Stainless Steel

440C Stainless Steel is a high-carbon martensitic stainless steel known for its exceptional hardness, wear resistance, and moderate corrosion resistance. Often used in applications requiring a durable edge and long-lasting performance, 440C is ideal for parts like bearings, cutlery, and molds. This alloy achieves one of the highest hardness levels among stainless steels, making it well suited for high-stress applications in industries such as aerospace, automotive, and tooling.

High Hardness and Wear Resistance

440C Stainless Steel stands out for its high hardness after heat treatment, reaching up to Rockwell C 58–60. This hardness, along with its excellent wear resistance, makes it an ideal choice for applications requiring durability and a sharp edge. Its strength and stability under stress also make it a popular choice for high-performance components that experience repeated or intense contact.

Corrosion Resistance

While 440C Stainless Steel offers good corrosion resistance, it is generally best suited to mild environments. Its resistance to moisture and moderate corrosive elements is sufficient for many applications but may be outperformed by other stainless steels in highly corrosive settings. Despite this, its ability to withstand wear without losing strength makes it a preferred choice for demanding applications.

Differences Between 440 Grades

440C Stainless Steel is often compared to other grades in the 440 series, particularly 440F and 440F Se, which are free-machining versions of 440 stainless steel. 440C differs from these grades in several ways. It lacks the added sulfur or selenium found in 440F and 440F Se, which means it does not offer the same machinability but provides superior hardness and wear resistance.

Additionally, 440C has better corrosion resistance than 440F and 440F Se, making it suitable for applications where both strength and moderate corrosion resistance are essential.

Applications of 440C Stainless Steel

440C Stainless Steel’s combination of high hardness, wear resistance, and moderate corrosion resistance makes it suitable for a variety of applications:

  • Bearings and Bushings: Commonly used in high-wear components that require long-lasting strength and durability.
  • Cutlery and Blades: Ideal for high-quality knives and cutting tools that benefit from a hard, sharp edge.
  • Molds and Dies: Used in plastic and metal forming applications where strength and wear resistance are critical.
  • Medical Instruments: Suitable for surgical tools and dental instruments that require high durability and edge retention.
  • Aerospace Components: Used in parts that demand high strength and resistance to wear in challenging environments.

Chemical Data, Mechanical Properties and Specifications for 440C Stainless Steel

Chemical Range for 440C

Element Minimum Maximum
Carbon 0.95 1.20
Chromium 16.0 18.0
Iron Balance --
Manganese -- 1.00
Molybdenum -- 0.75
Phosphorus -- 0.040
Silicon -- 1.00
Sulphur -- 0.030

Typical Mechanical Properties for 440C

Form Tensile Strength Yield Strength Elongation at Break
Annealed Bar 110 ksi 65 ksi 14%

Specifications

  • AMS 5630
  • ASTM A276

440C Stainless Steel

At a Glance

Property Details
Available Forms Rod, Flat Bar, Plate
Alloy Type High-Carbon Martensitic Stainless Steel
Corrosion Resistance Good corrosion resistance in mild environments; better than free-machining 440 grades
Hardness Heat treatable to very high hardness levels, commonly up to Rockwell C 58–60
Durability Excellent wear resistance, edge retention, and strength for high-contact applications
Machinability Machinable in the annealed condition, but more difficult to machine than 440F or 440F Se
Key Advantages High hardness, excellent wear resistance, good edge retention, and moderate corrosion resistance
Common Applications Bearings, bushings, cutlery, blades, molds, dies, surgical instruments, dental instruments, and wear-resistant components
Specifications AMS 5630, ASTM A276, ASTM A240
 

Introduction to 440C Stainless Steel

440C Stainless Steel is a high-carbon martensitic stainless steel known for its exceptional hardness, wear resistance, and moderate corrosion resistance. Often used in applications requiring a durable edge and long-lasting performance, 440C is ideal for parts like bearings, cutlery, and molds. This alloy achieves one of the highest hardness levels among stainless steels, making it well suited for high-stress applications in industries such as aerospace, automotive, and tooling.

High Hardness and Wear Resistance

440C Stainless Steel stands out for its high hardness after heat treatment, reaching up to Rockwell C 58–60. This hardness, along with its excellent wear resistance, makes it an ideal choice for applications requiring durability and a sharp edge. Its strength and stability under stress also make it a popular choice for high-performance components that experience repeated or intense contact.

Corrosion Resistance

While 440C Stainless Steel offers good corrosion resistance, it is generally best suited to mild environments. Its resistance to moisture and moderate corrosive elements is sufficient for many applications but may be outperformed by other stainless steels in highly corrosive settings. Despite this, its ability to withstand wear without losing strength makes it a preferred choice for demanding applications.

Differences Between 440 Grades

440C Stainless Steel is often compared to other grades in the 440 series, particularly 440F and 440F Se, which are free-machining versions of 440 stainless steel. 440C differs from these grades in several ways. It lacks the added sulfur or selenium found in 440F and 440F Se, which means it does not offer the same machinability but provides superior hardness and wear resistance.

Additionally, 440C has better corrosion resistance than 440F and 440F Se, making it suitable for applications where both strength and moderate corrosion resistance are essential.

Applications of 440C Stainless Steel

440C Stainless Steel’s combination of high hardness, wear resistance, and moderate corrosion resistance makes it suitable for a variety of applications:

  • Bearings and Bushings: Commonly used in high-wear components that require long-lasting strength and durability.
  • Cutlery and Blades: Ideal for high-quality knives and cutting tools that benefit from a hard, sharp edge.
  • Molds and Dies: Used in plastic and metal forming applications where strength and wear resistance are critical.
  • Medical Instruments: Suitable for surgical tools and dental instruments that require high durability and edge retention.
  • Aerospace Components: Used in parts that demand high strength and resistance to wear in challenging environments.

Chemical Data, Mechanical Properties and Specifications for 440C Stainless Steel

Chemical Range for 440C

Element Minimum Maximum
Carbon 0.95 1.20
Chromium 16.0 18.0
Iron Balance --
Manganese -- 1.00
Molybdenum -- 0.75
Phosphorus -- 0.040
Silicon -- 1.00
Sulphur -- 0.030

Typical Mechanical Properties for 440C

Form Tensile Strength Yield Strength Elongation at Break
Annealed Bar 110 ksi 65 ksi 14%

Specifications

  • AMS 5630
  • ASTM A276
  • ASTM A240

440F Se Stainless Steel

At a Glance

Property Details
Available Forms Round Bar
Alloy Type Free-Machining High-Carbon Martensitic Stainless Steel
Corrosion Resistance Moderate corrosion resistance in mild environments; lower than 440C due to free-machining additions
Hardness Heat treatable to high hardness levels for strength, wear resistance, and edge retention
Durability Good strength and wear resistance for precision-machined components
Machinability Excellent machinability with improved surface finish due to selenium addition
Key Advantages Free machining, fine surface finish, heat-treatable hardness, tight-tolerance capability, and good dimensional precision
Common Applications Medical instruments, dental instruments, valves, fittings, fasteners, shafts, precision tools, taps, dies, and automotive components
Specifications AMS 5632 Type 2, ASTM A582, UNS S44023
 

Introduction to 440F Se Stainless Steel

440F Se Stainless Steel is a free-machining version of 440 stainless steel, enhanced by the addition of selenium for improved machinability and surface finish. This grade offers a useful balance of hardness and ease of machining, making it well suited for high-precision parts. It is commonly used in applications such as medical instruments, valves, and fasteners, where a smooth finish and tight tolerances are important.

Machinability and Surface Finish

440F Se Stainless Steel is known for its excellent machinability, achieved by adding selenium to the alloy. This addition provides a finer surface finish compared to many standard martensitic stainless steels, making 440F Se useful for precision applications requiring smooth surfaces.

The alloy is well suited for high-volume production and complex parts where ease of machining, consistent finish, and dimensional accuracy are priorities.

Strength, Hardness, and Moderate Corrosion Resistance

440F Se retains good hardness and strength after heat treatment, making it suitable for components that require both durability and machinability. While its corrosion resistance is slightly lower than 440C due to the selenium addition, it performs well in mild environments and applications where corrosion resistance is secondary to machinability.

Differences Between 440 Grades

440F Se differs from 440C and standard 440F primarily due to the addition of selenium, which improves machinability and surface finish. Unlike 440C, which is generally selected for maximum hardness, wear resistance, and better corrosion resistance, 440F Se is tailored for ease of machining in precision applications.

Compared with standard 440F, 440F Se is often selected when a finer machined finish is desired. This makes it suitable for applications requiring high accuracy, smooth surfaces, and repeatable production.

Applications of 440F Se Stainless Steel

440F Se Stainless Steel’s free-machining qualities and fine surface finish make it useful for a variety of applications:

  • Medical Instruments: Used in precision surgical tools and dental instruments that require high machinability and a smooth finish.
  • Valves and Fittings: Suitable for high-precision parts requiring both strength and machinability.
  • Fasteners: Commonly used in fasteners where tight tolerances and a polished finish are needed.
  • Automotive Components: Suitable for shafts, fittings, and other parts that require high machining accuracy.
  • Industrial Tools: Useful for manufacturing precision tools, taps, dies, and other machined components.

Buy 440F Se Stainless Steel from M. Vincent

At M. Vincent, we supply 440F Se Stainless Steel in round bar to meet the demands of industries like medical, automotive, and tooling. We offer competitive pricing, quick delivery, and expert support to help you get the right material for your project. Contact us today for more information or to request a quote.

Chemical Data, Mechanical Properties and Specifications for 440F Se Stainless Steel

Chemical Range for 440F Se

Element Minimum Maximum
Carbon 0.95 1.20
Chromium 16.0 18.0
Iron Balance --
Manganese -- 1.25
Molybdenum -- 0.60
Nickel -- 0.75
Nitrogen -- 0.08
Phosphorus -- 0.04
Selenium -- 0.15
Silicon -- 1.00
Sulphur -- 0.030

Typical Mechanical Properties for 440F Se

Form Tensile Strength Yield Strength Elongation at Break
Annealed Bar 103 ksi 65 ksi 14%

Specifications

  • AMS 5632 Type 2
  • ASTM A582
  • UNS S44023

455 Stainless Steel

At a Glance

Property Details
Available Forms Rod, Tube
Alloy Type Martensitic Age-Hardenable Stainless Steel
Corrosion Resistance Excellent corrosion resistance for a high-strength martensitic stainless steel
Hardness Age hardenable through heat treatment to achieve high strength and hardness
Durability Excellent toughness, strength, and resistance to repeated stress
Machinability Machinable in the annealed condition and commonly supplied precision ground
Key Advantages High strength, good toughness, excellent corrosion resistance, simple heat treatment, and surgical instrument suitability
Common Applications Aerospace components, fasteners, shafts, springs, surgical instruments, medical tools, pumps, valves, and high-strength precision components
Specifications ASTM F899, AMS 5617, ASTM A564 Grade XM-16, UNS S45500
 

Introduction to 455 Stainless Steel

455 Stainless Steel, also known as Carpenter Custom 455®, is a martensitic age-hardenable stainless steel known for its high strength, toughness, and excellent corrosion resistance. This alloy is particularly useful in industries that require materials capable of maintaining strength and integrity in high-stress environments. Its ability to reach high tensile strength through simple heat treatment makes it highly versatile for aerospace, chemical processing, automotive, and medical applications.

Strength and Hardening Properties

455 Stainless Steel offers excellent mechanical properties, particularly in terms of high tensile and yield strength. The alloy can be age hardened with a relatively simple heat treatment process, achieving high strength while maintaining good toughness and ductility. This feature makes it a strong choice for components that need to withstand repeated stress and maintain structural integrity over time.

Corrosion Resistance and Durability

One of the significant advantages of Carpenter Custom 455® is its impressive corrosion resistance for a high-strength martensitic stainless steel. It is often selected for applications where strength, toughness, and corrosion resistance must work together.

Custom 455® offers reliable performance in demanding environments, including aerospace, chemical processing, automotive, and medical applications. Its combination of corrosion resistance and mechanical strength makes it useful for high-performance components that must resist wear, stress, and environmental exposure.

Applications of 455 Stainless Steel

Due to its combination of high strength, corrosion resistance, and toughness, 455 Stainless Steel is used in a variety of demanding applications across multiple industries:

  • Aerospace Components: Used for aircraft structures, landing gear components, and fasteners requiring high strength and corrosion resistance.
  • Oil and Gas Industry: Suitable for valves, shafts, and high-strength components where durability and corrosion resistance are important.
  • Automotive Components: Used in high-performance automotive parts such as shafts and springs that require both strength and durability.
  • Chemical Processing Equipment: Used for pumps, mixers, valves, and other components exposed to demanding service conditions.
  • Medical Instruments: Commonly used in surgical instruments and medical tools where high strength and corrosion resistance are essential.

Buy 455 Stainless Steel from M. Vincent

At M. Vincent, we supply 455 Stainless Steel, including Carpenter Custom 455®, in multiple forms to meet the needs of industries ranging from aerospace to medical. Our team offers competitive pricing, timely delivery, and expert support to help you get the right material for your project. Contact us today for more information or to request a quote.

Material is fully certified to AMS 5617 and ASTM F899 surgical instrument quality and is available precision ground to ±.0005 when applicable.

Chemical Data, Mechanical Properties and Specifications for Custom 455® Stainless Steel

Chemical Range for 455

Element Minimum Maximum
Carbon -- 0.05
Chromium 11.00 12.50
Copper 1.50 2.50
Iron Balance --
Manganese -- 0.50
Molybdenum -- 0.50
Nickel 7.50 9.50
Niobium 0.10 0.50
Phosphorus -- 0.04
Silicon -- 0.50
Sulphur -- 0.03
Titanium 0.80 1.40

Typical Mechanical Properties for 455

Form Tensile Strength Yield Strength Elongation at Break
Annealed Bar 145 ksi 103 ksi 14%

Specifications

  • ASTM F899
  • AMS 5617
  • ASTM A564 Grade XM-16
  • UNS S45500

465 Stainless Steel

At a Glance

Property Details
Available Forms Bar, Sheet, and Plate
Alloy Type Martensitic Age-Hardenable Stainless Steel
Corrosion Resistance Excellent corrosion resistance for an ultra-high-strength stainless steel
Hardness Age hardenable through heat treatment to achieve very high strength and hardness
Durability Exceptional toughness, fatigue strength, and long-term reliability in high-stress applications
Strength Capable of reaching yield strengths near 250 ksi in the H1000 condition
Key Advantages Ultra-high strength, good toughness, excellent corrosion resistance, fatigue resistance, and surgical instrument suitability
Common Applications Aerospace components, defense equipment, fasteners, landing gear components, shafts, springs, surgical instruments, medical tools, and high-strength precision parts
Specifications AMS 5936, ASTM A564, ASTM F899, UNS S46500
 

Introduction to 465 Stainless Steel

465 Stainless Steel, also known as Carpenter Custom 465®, is a martensitic age-hardenable stainless steel that offers exceptional ultra-high strength, toughness, and corrosion resistance. Designed to perform under demanding conditions, this alloy is widely used in industries such as aerospace, defense, and medical applications where high strength and toughness are critical. With its superior mechanical properties, Carpenter Custom 465® is well suited for components requiring long-term reliability and durability.

Ultra-High Strength and Toughness

465 Stainless Steel achieves its ultra-high strength and toughness through a simple age-hardening process. This makes it capable of handling extreme stress while maintaining useful ductility, which is important for components in high-performance applications.

The alloy can be heat treated to reach yield strengths near 250 ksi in the H1000 condition, making it stronger than many competing stainless materials. Its excellent balance of strength, toughness, and fatigue resistance helps it withstand repeated high-stress conditions.

Corrosion Resistance and Fatigue Strength

Carpenter Custom 465® offers excellent corrosion resistance for an ultra-high-strength stainless steel. It is often selected where high strength, corrosion resistance, and resistance to repeated stress are all required in the same component.

Its high fatigue strength enhances durability and supports long-lasting performance in challenging operating environments. This makes 465 Stainless Steel a strong choice for aerospace, defense, medical, and high-performance precision applications.

Applications of 465 Stainless Steel

The combination of ultra-high strength, corrosion resistance, toughness, and fatigue resistance makes 465 Stainless Steel useful for demanding applications across multiple industries:

  • Aerospace Components: Used in aircraft structural components, landing gear components, and engine parts that require high strength and toughness.
  • Defense Equipment: Suitable for military-grade fasteners, missile components, and high-strength structural parts.
  • Oil and Gas Industry: Used for downhole tools, valves, shafts, and high-strength components exposed to demanding service conditions.
  • Medical Instruments: Used in surgical instruments and medical tools requiring high strength, corrosion resistance, and reliable performance.
  • High-Strength Precision Parts: Suitable for fasteners, shafts, springs, and other components requiring ultra-high strength and dimensional control.

Buy 465 Stainless Steel From M. Vincent

At M. Vincent, we offer 465 Stainless Steel in a range of forms, including bar, sheet, and plate, to suit the needs of industries like aerospace, defense, and medical. Our team is committed to providing competitive pricing, timely delivery, and expert support to help you get the right material for your project. Contact us today to learn more or to request a quote.

Material is fully certified to AMS 5936 and ASTM F899 surgical instrument quality and is available precision ground to ±.0005 when applicable.

Chemical Data, Mechanical Properties and Specifications for Custom 465 Stainless Steel

Chemical Range for 465

Element Minimum Maximum
Carbon -- 0.02
Chromium 11.00 12.50
Iron Balance --
Manganese -- 0.25
Molybdenum 0.75 1.25
Nickel 10.75 11.25
Phosphorus -- 0.015
Silicon -- 0.25
Sulphur -- 0.01
Titanium 1.50 1.80

Typical Mechanical Properties for 465

Condition Tensile Strength Yield Strength Elongation at Break
H1000 252 ksi 247 ksi 15%

Specifications

  • AMS 5936, capable of H1000
  • ASTM A564, capable of H1000
  • ASTM F899
  • UNS S46500

BioDur® 108 Stainless Steel

At a Glance

Property Details
Available Forms Bar and Wire
Alloy Type High-Nitrogen, Low-Nickel Austenitic Stainless Steel
Corrosion Resistance Excellent corrosion resistance for medical and surgical implant applications
Hardness Non-heat-treatable; strengthened through cold working
Magnetic Properties Non-magnetic and suitable for applications where magnetic response is a concern
Durability High strength, toughness, fatigue resistance, and ductility for demanding medical components
Key Advantages Low nickel content, cobalt-free composition, high nitrogen strengthening, non-magnetic behavior, and ASTM F2229 implant suitability
Common Applications Bone plates, bone screws, hip and knee components, orthodontic appliances, surgical instruments, trauma fixation devices, spinal components, and medical wires
Specifications ASTM F2229
 

Introduction to BioDur® 108 Stainless Steel

BioDur® 108 Stainless Steel is a high-nitrogen, low-nickel austenitic stainless steel developed for medical applications requiring strength, toughness, corrosion resistance, and biocompatibility. It is often selected as an alternative to traditional nickel-containing implant alloys because it is essentially nickel-free and cobalt-free while still offering the mechanical performance needed for demanding medical components.

Unlike martensitic or precipitation-hardening stainless steels, BioDur® 108 is not hardened by heat treatment. Instead, it gains strength through cold working, a process in which the material is shaped or reduced at room temperature. Cold working increases strength while allowing the alloy to maintain good ductility and toughness, making it useful for components that must perform reliably under repeated stress.

One of the most important features of BioDur® 108 is its high nitrogen content. Nitrogen helps improve strength, fatigue resistance, and corrosion resistance without relying on high nickel content. This makes the alloy especially useful for medical products where high strength and reduced nickel exposure are important design considerations.

BioDur® 108 is non-magnetic and offers compatibility with medical imaging environments where magnetic response is a concern. Its low-nickel composition may also be beneficial for applications involving patients with metal sensitivity concerns. For implantable or body-contact applications, material selection should always be confirmed by the device manufacturer and applicable regulatory requirements.

Common medical applications for BioDur® 108 include:

  • Bone plates
  • Bone screws
  • Hip and knee components
  • Orthodontic appliances
  • High-strength surgical instruments
  • Trauma fixation devices
  • Spinal components
  • Medical wires and formed components

BioDur® 108 is covered by ASTM F2229, the standard specification for wrought, nitrogen-strengthened, low-nickel stainless steel alloy bar and wire for surgical implants. Its combination of low nickel content, high nitrogen strengthening, corrosion resistance, fatigue strength, and non-magnetic behavior makes it a valuable material for medical manufacturers seeking a strong stainless alloy for sensitive and high-performance applications.

Nitronic 60 Stainless Steel

At a Glance

Property Details
Available Forms Bar, Plate, and Sheet
Alloy Type High-Performance Austenitic Stainless Steel
Corrosion Resistance Good corrosion resistance with excellent performance in wear-prone environments
Hardness Non-hardenable by heat treatment; generally supplied in the annealed condition
Wear Resistance Excellent resistance to wear, galling, and metal-to-metal friction
Durability High toughness, strength, and long service life in demanding applications
Key Advantages Outstanding galling resistance, good corrosion resistance, high strength, toughness, and reduced need for lubrication
Common Applications Bushings, bearings, fasteners, valve components, shafts, wear rings, landing gear parts, and high-friction components
Specifications AMS 5848, ASTM A479, ASTM A276, UNS S21800
 

Introduction to Nitronic 60

Nitronic 60 is a high-performance specialty stainless steel known for its excellent wear resistance, galling resistance, toughness, and corrosion resistance. It is especially useful in applications where metal parts are exposed to friction, sliding contact, heavy loads, or repeated mechanical stress.

Unlike many stainless steels that are selected primarily for corrosion resistance, Nitronic 60 is often chosen for its ability to resist galling and wear. This makes it a strong option for components such as bushings, bearings, fasteners, valve parts, and other applications where metal-to-metal contact can cause seizing, scoring, or premature failure.

Wear and Galling Resistance

The primary advantage of Nitronic 60 is its outstanding resistance to wear and galling. Galling can occur when metal surfaces slide against each other under pressure, causing material transfer, seizing, or surface damage. Nitronic 60 helps reduce this risk, even in applications where lubrication is limited or unavailable.

This makes the alloy valuable in high-friction applications where maintenance downtime, part replacement, or fastener seizure can be costly. Its wear resistance allows components to maintain reliable performance in demanding service conditions.

Corrosion Resistance and Strength

Nitronic 60 offers a strong balance of corrosion resistance, strength, and toughness. It performs well in many environments where both corrosion resistance and mechanical durability are needed. While it is not intended to replace more corrosion-resistant grades in every severe chemical or chloride environment, it offers a useful combination of stainless corrosion resistance and superior wear performance.

The alloy is generally supplied in the annealed condition and is not hardened by heat treatment. Its chemistry, including manganese, silicon, and nitrogen, contributes to its strength, toughness, galling resistance, and overall performance.

Applications of Nitronic 60

Nitronic 60’s combination of wear resistance, galling resistance, strength, and corrosion resistance makes it useful across aerospace, automotive, marine, oil and gas, heavy equipment, and industrial manufacturing applications.

Common applications for Nitronic 60 include:

  • Bushings and Bearings: Used where metal-to-metal contact, friction, and heavy loading are concerns.
  • Fasteners: Helps reduce thread galling, seizing, and locking during assembly or service.
  • Valve Components: Suitable for valve stems, seats, and related components exposed to both mechanical stress and corrosive conditions.
  • Shafts and Wear Rings: Useful in parts that require strength, wear resistance, and dimensional reliability.
  • Landing Gear Components: May be used in high-stress components that experience repeated load and friction.
  • Industrial Equipment: Used in components where galling, abrasion, and maintenance downtime are concerns.

Buy Nitronic 60 From M. Vincent

As a leading distributor of specialty metals, M. Vincent offers Nitronic 60 in a variety of forms, including bar, plate, and sheet. Whether you need custom sizes or larger orders, we can help meet your project requirements. With competitive pricing, quick lead times, and a commitment to quality, we make it easy to get the materials you need when you need them. Contact us today for more information or to request a quote.

Chemical Data, Mechanical Properties and Specifications for Nitronic 60

Chemical Range for Nitronic 60

Element Minimum Maximum
Carbon -- 0.10
Chromium 16.0 18.0
Iron Balance --
Manganese 7.0 9.0
Nickel 8.0 9.0
Nitrogen 0.08 0.18
Phosphorus -- 0.040
Silicon 3.5 4.5
Sulphur -- 0.03

Typical Mechanical Properties for Nitronic 60

Form Tensile Strength Yield Strength Elongation at Break
Annealed 103 ksi 60 ksi 64%

Specifications

  • AMS 5848
  • ASTM A479
  • ASTM A276
  • UNS S21800