Tool steel milling and turning

Tool steels are characterized by high wear resistance, very good mechanical properties, low thermal expansion and high hardness and toughness. As a material for turning and milling, tool steel is used for a wide variety of applications in tool making (e.g. cutting edges, punches, inserts, molds, etc.).

Seven different tool steels for CNC machining (milling and turning) are available in our online shop. Our overview will help you select the ideal material for your turning and milling parts.

Surface treatments for turning and milling parts made of tool steel

After turning and milling, tool steel parts are often subjected to heat treatment. For this purpose, you can choose from the common processes in our online shop.

This is how easy it is to order tool steel parts from Spanflug: 

Upload CAD model, select suitable material and post-treatment, get instant quote and order online.

More information about the order process

Tool steel turning part

Our tool steels

Please choose the alloy with the optimum fit to your requirements. 

1.2210
115CrV3

Material costs: €€€

Manufacturing costs: €€€€€

Tensile strength: 750 N/mm²
hardened: 1665 N/mm²

Hardness: 220 HB (19 HRC)
hardened: 658 HB (62 HRC)

The tool steel 1.2210, also called "silver steel", is a universally usable cold work steel, which is characterized by its high hardness acceptance and wear resistance. It is easily machinable and can be easily heat treated.

hardenable
easy to chip
wear-resistant

1.2312
40CrMnMoS8-6

Material costs: €€€€€

Manufacturing costs: €€€€€

Tensile strength: 1100 N/mm²
hardened: 1665 N/mm²

Hardness: 325 HB (35 HRC)
hardened: 469 HB (50 HRC)

1.2312 is a cold work steel with sulfur addition and high tensile strength. The material has good machinability, but limited polishability and etchability. 1.2312 is frequently used in tool and mold making.

hardenable
good nitriding
good machinability
wear-resistant

1.2379
X153CrMoV12

Material costs: €€€€

Manufacturing costs: €€€€

Tensile strength: 770 N/mm²
hardened: 2180 N/mm²860

Hardness: 225 HB (26 HRC)
hardened: 658 HB (62 HRC)

1.2379 is a cold work tool steel which is mainly used for the production of tools due to its good dimensional stability. This tool steel is particularly wear-resistant and tough. In addition, it is characterized by its high tempering resistance at higher hardening temperatures.

hardenable
good nitriding
Very wear resistant

1.2842
90MnCrV8

Material costs: €€€€€

Manufacturing costs: €€€€

Tensile strength: 770 N/mm²
hardened: 2180 N/mm²

Hardness: 229 HB (21 HRC)
hardened: 658 HB (62 HRC)

1.2842 is a cold work tool steel characterized by its high hardness acceptance and high dimensional stability after heat treatment. It is considered one of the most widely used tool steels.

hardenable
wear-resistant

1.3505
100Cr6

Material costs: €€€€€

Manufacturing costs: €€€

Tensile strength: 750 N/mm²
hardened: 2180 N/mm²

Hardness: 220 HB (19 HRC)
hardened: 695 HB (64 HRC)

1.3505 belongs to the group of rolling bearing steels. This steel is particularly suitable for the production of ball bearings, roller bearings and is used in mechanical engineering for components subject to wear.

hardenable
wear-resistant

1.1730
C45U

Material costs: €€€€

Manufacturing costs:

Tensile strength: 640 N/mm²
hardened: 1000 N/mm²

Hardness: 190 HB (13 HRC)
hardened: 534 HB (54 HRC)

1.1730 is an unalloyed cold work tool steel with very good machining properties. It is hardenable but only with low hardening depth. Therefore, C45U is suitable for applications that require a hard surface and a tough core.

hardenable
wear-resistant
good machinability

1.2083
X40Cr14

Material costs: €€€

Manufacturing costs: €€€

Tensile strength: 815 N/mm²
hardened: 1955 N/mm²

Hardness: 241 HB (23 HRC)
hardened: 552 HB (55 HRC) 4

1.2083 is a cold work and plastic mold steel with good machinability, high wear resistance and high dimensional stability. This steel is widely used for molds of corrosive-acting plastics.

hardenable
wear-resistant

Note: The data given are guide values and may vary depending on the machining process and parts. The specifications cannot be transferred to finished parts without further ado. The suitability of the materials for a specific part must be checked by the customer.