Materials
We stock locally to service our customers’ delivery requirements. All materials can also be ordered as mill quantity.
Nickel based Alloys
Nickel based alloys are characterized by high toughness, and good resistance to oxidation and corrosion. Alloying additions to the base nickel content creates grades that vary in the relative range of the these characteristics, which imparting good mechanical strength and high temperature properties.
For the manufacture of these grades, voestalpine companies worldwide are known as the world leader in melting and remelting technology. Our 120-years of experience plus our metallurgy know-how and a focus on the development and production of high performance materials have meant we have become one of the most innovative producers of special steel in the world. Our company boasts the most modern vacuum induction melting (VIM) and vacuum arc remelting units (VAR) plus pressurized electroslag remelting units (PESR).
| Alloy | BÖHLER brand | WstNo. | UNS | ISO | AMS | ASTM | Others |
| Alloy 800 (H, HT, HP) | H500 | 1.4876, 1.4959, 1.4958 | N08810, N08811 | X10NiCrAlTi32-21 | – | B408, B564 | – |
| A286 | T200 | 1.4943, 1.4944, 1.4980, 1.2779, 1.3980 | S66286 | X4NiCrTi25-15, X5NiCrTi26-15 | 5731, 5732 | A660 | AISI: 660 |
| Alloy 201 | – | 2.4068 | N02201 | LC-Ni99 | – | – | – |
| Alloy 400 | VRC400 | 2.4360 | N04400 | NiCu30Fe | – | B164, B564 | – |
| Alloy K500 | – | 2.4375 | N05500 | NiCu30AI | – | – | – |
| Alloy C22 | L022 | 2.4602 | N06022 | NiCr21Mo14W | – | – | – |
| Alloy 59 | L359 | 2.4605 | N06059 | NiCr23Mo16AI | – | – | – |
| Alloy C4 | L004 | 2.4610 | N06455 | NiMo16Cr16Ti | – | – | – |
| Alloy B2 | – | 2.4617 | N10665 | NiMo28 | – | – | – |
| Alloy G3 | L003 | 2.4619 | N06985 | NiCr22Mo7Cu | – | – | – |
| Alloy 602CA | – | 2.4633 | N06025 | NiCr25FeALY | – | – | – |
| Alloy 105 | – | 2.4634 | N13021 | NiCo20Cr15MoAITi | – | – | – |
| Alloy 690 | L690 | 2.4642 | N60690 | NiCr29Fe | |||
| Alloy C263 | – | 2.4650 | N07263 | NiCo20Cr20MoTi | – | – | – |
| Waspaloy | L303 | 2.4654 | N7001 | NiCr20Co13Mo4Ti3Al | 5704, 5706, 5707, 5708, 5709 | ||
| Alloy 20 | – | 2.4660 | N08020 | NiCr20CuMo | – | – | – |
| Alloy 901 | L901 | 2.4662 | N09901 | NiCr13Mo6Ti3 | 5660, 5661 | – | – |
| Alloy 617 | VAT617 | 2.4663a | N06617 | NiCr23Co12Mo | – | B166 | – |
| Alloy X | LHX | 2.4665 | N06002 | NiCr22Fe18Mo | – | – | – |
| Alloy 718 (API) | L718API | 2.4668 | N07718 | NiCr19NbMo/NiCr19Fe19Nb5Mo3 | – | – | Nace MR0175 (150ksi) |
| Alloy 718 (AMS) | L718 AMS | 2.4668 | N07718 | NiCr19NbMo/NiCr19Fe19Nb5Mo3 | 5662, 5663 | B637 | – |
| Alloy 725 | L725 | – | N07725 | NiCr21Mo8NbTiAl | – | B637, B805 | – |
| Alloy X750 | L750, VATX750 | 2.4669 | N07750 | NiCr15Fe7TiAI | – | B637 | – |
| Alloy 600 | – | 2.4816 | N06600 | NiCr15Fe | – | – | – |
| Alloy C276 | L276 | 2.4819 | N10276 | NiMo16Cr15W | – | – | – |
| Alloy 601 | – | 2.4851 | N06601 | NiCr23Fe | – | – | – |
| Alloy 925 | L925 | 2.4852 | N09925 | NiCr21Mo3TiAl | – | – | – |
| Alloy 625 | L625 | 2.4856 | N06625 | NiCr22Mo9Nb | 5666 | B446-03 G1 | – |
| Alloy 825 | L314, VRC825 | 2.4858 | N08825 | NiCr21Mo | – | – | – |
| Alloy 75 | – | 2.4951, 2.4630 | N06075 | NiCr20Ti | – | – | – |
| Alloy 80A | L080 | 2.4952, 2.4631 | N07080 | NiCr20TiAL | – | – | – |
| Alloy L605 | – | 2.4964 | R30605 | CoCr20W15Ni | – | – | – |
| Alloy 90 | – | 2.4969, 2.4632 | N07090 | NiCr20Co18Ti | – | – | – |
| Alloy 41 | – | 2.4973 | N07041 | NiCr19CoMo9TiAl | – | – | – |
| MP35N | L035 | R30035 | CoNi35Cr20Mo |
Duplex and Super Duplex Steels
The properties of duplex stainless steels are achieved with overall lower alloy content than similar-performing super-austenitic grades, making their use cost-effective for many applications. Duplex grades are characterized into groups based on their alloy content and corrosion resistance.
| Alloy | BÖHLER brand | WstNo. | UNS | ISO | AMS | ASTM | Others |
| Super Duplex | A913 | 1.4410 | S32750 | X2CrNiMoN25-7-4 | – | – | F53 |
| Duplex | A903 | 1.4462 | S31803, S32205 | X2CrNiMoN22-5-3 | – | – | F51, STN: 17 381 |
| Super Duplex | A911 | 1.4501 | S32760 | X2CrNiMoCuWN25-7-4 | – | – | F55 |
| Ferralium 255 | A923 | 1.4507 | S32550 | X2CrNiMoCuN25-6-3 | F61, F255 |
Martensitic Stainless Steels
Stainless alloys are divided into four basic groups: martensitic stainless steels, ferritic stainless steels, austenitic stainless steels, and precipitation hardening stainless steels.
When nickel is added, for instance, the austenite structure of iron is stabilized. This crystal structure makes such steels virtually non-magnetic and less brittle at low temperatures. For greater hardness and strength, more carbon is added, and these grades are defined as ferritic or martensitic alloys.
The ferritic types achieve moderate increases in strength by cold working. The martensitic types become martensitic during heat treatment and achieve excellent strength.
| Alloy | BÖHLER brand | WstNo. | UNS | ISO | AMS | ASTM | Others |
| – | N685 | 1.2361, 1.4112 | S44003 | X91CrMoV18 | |||
| 440C | N695 | 1.3544, 1.4125 | S44004 | X102CrMo17 | 5618, 5630 | ||
| 52100 | R100 | 1.3505 | 100Cr6 | 6444 | |||
| M50 | R250 | 1.3551 | 80MoCrV42-16 | 6491 | |||
| M50Nil | R350 | ~13MoCrNiV42-16-14 | 6278 | ||||
| – | V416 | 1.4005 | S41600 | X12CrS13 | 5610L | A582 | AISI: 416 |
| – | VC140 | 1.4006 | S41000 | X12Cr13 | – | A276, A182 | AISI: 410 |
| 403 | N100 | 1.4006 | X12Cr13 | 403 | |||
| 13Cr | VC150 | 1.4021 | S42000 | X20Cr13 | – | A276 | AISI: 420 |
| 420 | N320 | 1.4021 | X20Cr13 | 420 | |||
| 431 | N352 | 1.4044, 1.4057 | X17CrNi16-2 | 431 | |||
| X30 | N360 | 1.4108 | S42027 | X30CrMoN15-1 | 5898A | A756, F899 | |
| F6NM | N400, N403 | 1.4313 | S41500 | X3CrNiMo 13-4 | – | A182 | AISI: F6NM |
| Super 13Cr | – | 1.4415 | S41425, S41427 | X2CrNiMoV13-5-2 | – | A182 | – |
| – | N404 | 1.4418 | – | X4CrNiMo 16-5-1 | – | – | – |
| – | N690 | 1.4528 | X105CrCoMo18-2 | ||||
| 9Cr1Mo | – | 1.7385 | K90941 | 12CrMo9-1 | – | – | – |
Austenitic and Super Austenitic Stainless Steels
Austenitic stainless steel is one of the five classes of stainless steel by crystalline structure (along with ferritic, martensitic, duplex and precipitation hardened). Its primary crystalline structure is austenite (face-centered cubic). These steels usually cannot be hardened by heat treatment and are non-magnetic. This structure is achieved by adding enough austenite stabilizing elements such as nickel, manganese and nitrogen.
Like the austenitic stainless steels, the super austenitic stainless steels are also very ductile; they have excellent toughness, high strength, excellent corrosion resistance, good weldability and excellent formability. The super austenitic stainless steels are generally used where higher corrosion resistance, especially protection against chloride pitting and crevice corrosion, is required. Super austenitic stainless steels are defined as austenitic iron-based alloys with a PREN value greater than 40.
| Alloy | BÖHLER brand | WstNo. | UNS | ISO | AMS | ASTM | Others |
| 304 | A500 | 1.4301 | S30400 | X5CrNi18-10 | – | A182 | AISI: 304 |
| 304L | A607 | 1.4307 | S30403 | X2CrNi18-9 | – | A182 | AISI: 304L |
| 316 | A120 | 1.4401 | S31600 | X5CrNiMo17-12-2 | – | A182 | AISI: 316 |
| 316L | A200 | 1.4404 | S31600 | X2CrNiMo17-12-2 | – | A182 | AISI: 316L |
| 316L | A220 | 1.4435 | S31603 | X2CrNiMo18-14-3 | – | – | AISI: 316LUG, STN: 17 350 |
| 317L | A102 | 1.4449 | S31703 | X3CrNiMo18-12-3 | – | A182 | AISI: 317L |
| 310 Urea | A405 | 1.4466 | S31050 | X1CrNiMoN25-22-2 | – | – | AISI: 310 MoLN |
| 321 | A700 | 1.4541 | S32100 | X6CrNiTi18-10 | – | A182 | AISI: 321 |
| 347 | A750 | 1.4546, 1.4550 | N07090 | X6CrNiNb18-10 | 5512, 5646 | AISI: 347 | |
| – | P558 | 1.3808 | S29225 | X20CrMnMoN17-11-3 | |||
| Alloy 50 | P511 | Nitronic 50 | S20910 | X3CrNiMnMo22-13-3-2 | – | A182, A276, A479 | AISI: XM 19 |
| U-Boot Stahl 1.3964 | P501 | 1.3964 | X2CrNiMnMoNNb21-16-5-3 | ||||
| U-Boot Stahl 1.3974 | P503 | 1.3974 | X2CrNiMnMoNNb23-17-6-3 | ||||
| 316LN/ U-Boot Stahl 1.3952 | P510 | 1.4429 | X2CrNiMoN17-13-3 | 316LN | |||
| Alloy 904L | A962RC | 1.4539 | N08904 | X1NiCrMoCu25-20-5 | – | A182 | – |
| 254SMO | A965SA | 1.4547 | S31254 | X1CrNiMoCuN20-18-7 | – | – | AISI: F44 |
| Alloy 926, Alloy 6XN | A970 | 1.4529 | N08926 | X1CrNiMoCuN20-18-7 | – | – | – |
| Alloy 24 | P500 | 1.4565 | X2CrNiMnMoN25-18-6-5 | Alloy 24 | |||
| Alloy 31 | A952 | 1.4562 | N08031 | X1NiCrMoCu32-28-7 | – | B564, B649 | – |
| Alloy 60 | P513 | – Nitronic 60 | S21800 | X10CrNiMn17-8-8 | – | A276, A314, A479, A484 | – |
Heat and Creep Resistant Steels
Viewing the microstructure respectively the chemical analysis the heat-resistant steels can be divided in the group of ferritic, martensitic, austenitic steels and nickel alloys.
Such steels are generally used in applications where resistance to increased temperatures are critical. These steels are hard wearing and offer a resistance to large variations in temperature. Industrial applications include furnaces, heat exchanges and incinerators where temperatures can reach up to 1100°C.
Characteristics include corrosive resistance, creep resistance, oxidation resistance and hydrogen brittleness – all under extremely high temperatures.
Creep resistant steels are steels designed to withstand a constant load at high temperatures.
The most important application of creep resistant steels is components of steam power plants operating at elevated temperatures (boilers, turbines, steam lines).
| Alloy | BÖHLER brand | WstNo. | UNS | ISO | AMS | ASTM | Others |
| 403 | T655 | 1.4006 | X12Cr13 | 403 | |||
| 403Cb | T656 | 12%Cr | 403Cb | ||||
| 420 | T651 | 1.4021 | X20Cr13 | 420 | |||
| T602 | 1.4120, ~ 1.4921 | X19CrMo12-1 | |||||
| Alloy FV520, 520B | T670 | 1.4594 | S45000 | X5CrNiMoCuNb14-5 | – | – | – |
| Alloy 450 | T671SA, T671SB | 1.4594 | S45000 | X5CrNiMoCuNb14-5 | ~XM25 | ||
| – | H500 | 1.4876 | – | X10NiCrAlTi 32-21 | – | B564 | – |
| COST E | T505SC | 1.4906 | X12CrMoWVNbN10-1-1 | ||||
| T560 | 1.4913 | X19CrMoNbVN11-1 | ~BS: S150 | ||||
| T550 | 1.4922, 1.4923, 1.4926, 1.4934 | X20CrMoV12-1, X22CrMoV12-1, X21CrMoV12-1 | STN: 17 134 | ||||
| Jethete M152 | T552 | 1.4933, 1.4938, 1.4939 | S64152 | X12CrNiMo12 | 5719 | BS: S151 | |
| 422 | T504 | ~1.4935 | 12%Cr | 422, 661 | |||
| A286 | T200 | 1.4943, 1.4944, 1.4980, 1.2779, 1.3980 | S66286 | X4NiCrTi25-15, X5NiCrTi26-15 | 5731, 5732 | A660 | AISI: 660 |
| – | T240 | 1.4962 | X12CrNiWTi16-13 | ||||
| – | T262 | 1.4986 | X8CrNiMoBNb16-16 | ||||
| 314 | H525 | 1.4841 | S31400 | X15CrNiSi25-20 | AISI 314 | ||
| Alloy 800 (H, HT, HP) | H500 | 1.4876, 1.4959, 1.4958 | N08810, N08811 | X10NiCrAlTi32-21 | – | B408, B564 | – |
Precipitation Hardening Steels
Precipitation hardening alloys of the 17-4 PH and 15-5 PH types achieve their strength by dissolving precipitates by solution annealing. An aging cycle then creates precipitates that strengthen the steel. They are usually characterized by extremely good corrosion resistance.
| Alloy | BÖHLER brand | WstNo. | UNS | ISO | AMS | ASTM | Others |
| 17-4 PH | N700 | 1.4542, 1.4548 | S17400 | X5CrNiCuNb16-4 | 5622, 5643 | A564, F899 | AISI: 630 |
| 15-5 PH | N701 | 1.4545 | S15500 | X5CrNiCu15-5 | 5659 | – | AISI: XM 12 |
| 13-8 Mo | N709 | 1.4534 | – | X3CrNiMoAl13-8-2 | 5629 | A564 | – |
| Alloy 455 | N713 | 1.4543 | S45500 | X3CrNiCuTiNb12-9 | Alloy 455, XM16 | ||
| Maraging 300 | V300 | 1.6354, ~1.2709 | K93160 | X2NiCoMo18-9-5 | 6514 | ||
| Maraging 250 | V250 | 1.6359, ~1.2706 | K92890 | X2NiCoMo18-8-5 | 6512 | ||
| Maraging 350 | V350 | 1.6356 | X2NiCoMoTi18-12 | 6515 | |||
| Alloy 465 | N765 | 1.4614 Custom 465 | S46500 | X1CrNiTiMo11-11, X2CrNiTi12-11 | 5936 | A564, F899 | |
| A286 | T200 | 1.4943, 1.4944, 1.4980, 1.2779, 1.3980 | S66286 | X4NiCrTi25-15, X5NiCrTi26-15 | 5731, 5732 | A660 | AISI: 660 |
| Alloy 718 (API) | L718API | 2.4668 | N07718 | NiCr19NbMo/NiCr19Fe19Nb5Mo2 | – | – | Nace MR0175 (150ksi) |
| Alloy 718 (AMS) | L718 AMS | 2.4668 | N07718 | NiCr19NbMo/NiCr19Fe19Nb5Mo3 | 5662, 5663 | B637 | – |
Copper Bearing Bronze
| Alloy | BÖHLER brand | WstNo. | UNS | ISO | AMS | ASTM | Others |
| BeCu | – | – | C17200 | – | – | B196, B251, B643 | – |
| NiAl Bronze | – | – | C63000 | – | – | B150 | – |
| Toughmet 3 | – | – | C72900 | – | – | B505 | – |
Engineering Steels
Engineering steels are basically wrought steels intended for mechanical engineering and related technical applications. These require critical and often stringent levels of elasticity, strength, ductility, toughness and fatigue resistance. In some cases, resistance to high or low temperatures, expansion, corrosive and other aggressive environments may also be required.
Each material is carefully tailored to meet specific user requirements for properties and performance, and in some cases, to facilitate manufacturing and fabrication techniques. These techniques are then used to manufacture components or parts. The composition, process flow and heat treatment parameters are carefully selected to meet customer needs.
| Alloy | BÖHLER brand | WstNo. | UNS | ISO | AMS | ASTM | Others |
| 300M | V132 | 41SiNiCrMoV7-6 | 6257, 6414; 6419 | ||||
| 300MSi | V180 | 40SiNiCrMoV10-6 | 6499 | ||||
| 30CND8 | V145 | 1.6604, 1.6580 | G43400 | 30CrNiMo8 | 6484D | ||
| 9310 | E105 | 1.6657 | G93106 | 14NiCrMo13-4 | 6265 | ||
| LW1.6722 | E108 | LW1.6722 | BS:S82 | ||||
| – | V118 | 1.6745 | 40NiMoCr10-5 | BS:S99 | |||
| 4330 (MOD) | 4330 (MOD) | 1.6932 | – | 28NiCrMoV8-5 | – | A646 | – |
| 4340 | V124SC | 1.6944 | G43400 | ≈40NiCrMo6 | 6414, 6484 | E10 | |
| – | V129SA | 1.6952 | 24NiCrMoV14-6 | ||||
| F22 | F22 | 1.7380 | K21590 | 10CrMo9-10 | – | A182 | – |
| 15CDV6 | V354 | 1.7734, 1.7735, 1.7736 (ESU) | 14CrMoV6-9 | ||||
| E32CDV13 | V361 | ~1.7765 | 33CrMoV12 | 6481 | |||
| E40CDV12 | V358 | 1.8523 | 39CrMoV13-9 |
Steels with special physical properties
This material group shows special physical properties such as thermal expansion, permeability, relaxation, heat transfer, electric resistance or density.
| Alloy | BÖHLER brand | WstNo. | UNS | ISO | AMS | ASTM | Others |
| – | N114 | 13%Cr | |||||
| Ni36, | P802 | 1.3912 Invar | K93600 | Ni36 | B753, F1684 | ||
| – | P800 | FeCo17Cr1 | |||||
Titanium
Titanium and titanium alloys are suitable for several applications. They offer good corrosion and erosion resistance, high strength, extreme mechanical and thermal stress resistance and good biocompatibility at low density.
| Alloy | BÖHLER brand | WstNo. | UNS | ISO | AMS | ASTM | Others |
| Titan Grade 1 | 3.7024 | R50250 | WL 3.7024-1, BS TA 1, SAE AMS 4940 | B265/ B348 | |||
| Titan Grade 2 | 3.7034 | R50400 | WL 3.7034 | ||||
| Titan Grade 2 | 3.7035 | R50400 | B265/ B348 | ||||
| Titan Grade 3 | 3.7055 | R50400 | B265/ B348 | ||||
| Titan Grade 4 | 3.7064 | R50700 | WL 3.7064 | ||||
| Titan Grade 4 | 3.7065 | R50700 | B265/ B348 | ||||
| Titan Grade 12 | 3.7105 | R53400 | |||||
| Ti AI5Sn2 | 3.7114 | R54520 | |||||
| Ti Cu 2 | 3.7124 | ||||||
| Ti 6-2-4-2 | 3.7144 | R54620 | |||||
| Ti AI6Zr5 | 3.7154 | ||||||
| Ti AI6V4 | 3.7164 | R56400 | ASTM F 1472, BS 7252-3, ISO 5832-3 | WL 3.7164 | |||
| Ti AI6V6Sn2 | 3.7174 | ||||||
| Ti AI4 Mo4Sn2 | 3.7184 | ||||||
| Ti 5AI-2,5V | 3.7194 | R56320 | |||||
| Titan Grade 11 | 3.7225 | R52250 | |||||
| Titan Grade 7 / Pd | 3.7235 | R52400 | ASTM B-/ASME SB-265 &348, DIN 17860, VdTÜV data sheet 230 | ||||
| Ti 6Al7Nb | R56700 |
Other Materials
| Alloy | BÖHLER brand | WstNo. | UNS | ISO | AMS | ASTM | Others |
| Zirconium 99,5 | 2.2068 | R60001 | |||||
| Zirconium Grade 701 | 2.2068 | R60701 | |||||
| Zirconium Grade 702 | 2.2068 | R60702 | |||||
| Zirconium Grade 704 | 2.2068 | R60704 | |||||
| Zirconium Grade 705 | 2.3894 | R60705 | |||||
| Zircaloy 2 | 1.8780 | R60802 | |||||
| Zircaloy 4 | 1.8780 | R60804 | |||||
| ZrNb 2,5 | 2.0241 | R60901 | |||||
| Tantalum | |||||||
| Tungsten |