Steel materials suitable for cold work molds, blanking molds, wear-resistant parts, punches, cutting tools, cutting tools, and mold parts requiring high hardness and wear resistance.
SKD11 Tool Steel is a high-carbon, high-chromium cold work mold steel, characterized by high hardness, good wear resistance, good dimensional stability, and strong compressive strength. It is commonly used in blanking dies, cold work dies, punches, cutting edges, shearing blades, wear-resistant inserts, precision mold parts, and highly wear-resistant mechanical parts. After quenching, tempering, and other heat treatments, SKD11 can achieve higher hardness and good wear resistance, but its toughness is relatively limited and it is not suitable for strong impact or large deformation structures.
By focusing on application scenarios, boundaries of advantages, and non-recommended scenarios, it helps sales, customer service, and quoting staff quickly determine whether the material meets current part requirements.
It has high hardness, good wear resistance, high compressive strength, good dimensional stability after heat treatment, suitable for precision cold work molds, blanking and shearing molds, high wear-resistant inserts, and generally has a service life better than ordinary carbon tool steel.
Blanking dies, blanking dies, punches, cavities, cutting blades, cold work die inserts, wear-resistant plates, wear-resistant blocks, forming dies, impression molds, cold extrusion dies, small precision mold parts, cutting edges, mold guide parts, wear-resistant mechanical parts, precision stamping die accessories.
High-impact heavy-duty parts, hot work molds, high-temperature long-term working parts, highly corrosive environment parts, long-term exposed outdoor parts, welded structural parts, large deformation elastic parts, high-toughness snap fasteners, food direct contact parts, medical implant parts, low-cost ordinary structural parts, parts requiring stainless steel corrosion-resistant appearance.
The following parameters come from product information and material knowledge fields, used for design review, quotation communication, and preliminary judgment before material selection.
| Material positioning | Steel materials suitable for cold work molds, blanking molds, wear-resistant parts, punches, cutting tools, cutting tools, and mold parts requiring high hardness and wear resistance. |
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| Precision performance | The SKD11 is suitable for CNC machining, wire cutting, EDM, grinding, and finishing after heat treatment. Before heat treatment, rough machining and semi-finish machining can be completed; after heat treatment, key dimensions are guaranteed through grinding, wire cutting, or finishing. Actual accuracy is affected by heat treatment deformation, internal material stress, machining method, part thickness, hole layout, and post-processing. Precision punches, dies, cutting edges, and mating surfaces should have separate tolerances and surface roughness controlled. |
| Dimensional tolerances | For CNC machining SKD11, the standard dimensional tolerances can be referenced ± 0.02mm to ±0.10mm, while ordinary mold structural parts can be evaluated at ± 0.05mm to ±0.20mm; After heat treatment, dimensional changes or deformation may occur; critical dimensions are recommended to be ground or wire-cut for fine finishing after heat treatment. The precision die mating position, blade clearance, and blanking clearance should be separately controlled according to mold standards. This value is a standard reference range and does not guarantee absolute tolerances for all structures. |
| Minimum Wall Thickness | The wall thickness of ordinary CNC machined structures is recommended to be no less than 1.0mm. Areas requiring quenching, bearing punching forces, forming blade edges, or serving as wear-resistant structures should be appropriately thickened. Thin walls, sharp corners, slender structures, and abrupt cross-sectional changes are more prone to deformation, cracking, or edge chipping during heat treatment and use. It is not recommended to design overly thin steel positions over large areas. |
| Recommended wall thickness | Standard mold inserts, wear-resistant blocks, and cutting edge parts are recommended to be 2.0mm to 5.0mm or more; punches, dies, cutting blades, and the positions bearing punching force should be appropriately thickened according to the punching force, material thickness, blade length, and installation method. Precision parts requiring heat treatment should have allowance for grinding and correction. |
| Minimum aperture | CNC machining can achieve smaller hole diameters, but after heat treatment of SKD11, hole size, roundness, and position may change. A standard hole diameter is recommended to be no less than 1.0mm; deep small holes, slender holes, and holes near the blade edge require careful design. It is recommended to reserve machining allowance for precision holes, positioning holes, pin holes, and threaded holes. If necessary, after heat treatment, drill, reaming, grinding, or wire cutting for finishing. |
| Assembly clearance | For ordinary metal assembly, it is recommended to reserve 0.05mm-0.20mm on one side; precision mold mating surfaces, punches and fixing plates, inserts and mold bases, and tool edge clearances should be determined separately according to mold structure and processing standards. If parts require heat treatment, nitriding, PVD coating, or blackening, dimensional changes and surface layer thickness should be considered to avoid overtightening or strain on the mating surface. |
| Detailed performance | SKD11 is suitable for machining holes, grooves, steps, chamfers, cutting edges, punch profiles, positioning surfaces, wear-resistant surfaces, and die fit structures. Wire cutting and grinding enable highly precise cutting edges and profiles, while EDM is suitable for deep cavities and complex local structures. Fine text, logos, and markings are recommended to be achieved through laser marking, engraving, or etching; complex decorative details are not recommended for high-hardness blades and high-stress areas. |
| Surface effect | The original machined surface of SKD11 is usually silver-gray or gray-black metallic surface, and after heat treatment, it may develop dark gray, oxidized color, or slight color differences. After grinding and polishing, a relatively flat mold working surface is obtained; after blackening or anti-rust treatment, a black or dark gray protective appearance can be obtained. Mold working surfaces usually focus more on hardness, wear resistance, flatness, and roughness rather than decorative appearance. |
Based on material characteristics and suitable product ranges, customer needs are broken down into easier application directions to determine.
Blanking dies, blanking dies, punches, cavities, cutting blades, cold work die inserts, wear-resistant plates, wear-resistant blocks, forming dies, impression molds, cold extrusion dies, small precision mold parts, cutting edges, mold guide parts, wear-resistant mechanical parts, precision stamping die accessories.
Steel materials suitable for cold work molds, blanking molds, wear-resistant parts, punches, cutting tools, cutting tools, and mold parts requiring high hardness and wear resistance.
The core features of SKD11 Tool Steel are high hardness and high wear resistance, making it suitable for cold work blanking, cutting, embossing, and wear-resistant die structures. It contains relatively high levels of carbon and chromium, and after heat treatment, it can achieve higher hardness and better wear resistance. Compared to ordinary 45# steel, T10, and other materials, SKD11 offers better wear resistance and mold life; However, compared to hot-work mold steels or alloy structural steels with better toughness, SKD11 has weaker impact resistance, making sharp corners, thin walls, and large impact structures prone to cracking or cracking.
Based on wall thickness, hole position, assembly clearance, dimensional tolerances, and material usage risks, determine in advance whether the part structure is suitable for SKD11 Tool Steel.
Post-processing of SKD11 Tool Steel affects appearance, dimensions, hole position, assembly clearance, and usage validation results, and should be explained in advance during quotation, DFM review, and sample confirmation stages.
Post-processing should focus on appearance display, dimensional fitting, connection assembly, and testing verification. Parts involving assembly positions need to be reserved in advance for machining, coating, and trial assembly allowances.
For common issues such as threads, snaps, strength, temperature resistance, and weather resistance, identify in advance whether the material needs to be replaced or if another processing method should be used.
When customer demand exceeds SKD11 Tool Steel material boundaries, it is necessary to combine strength, temperature resistance, toughness, long-term stability, and mass production goals to promptly recommend alternative materials or processing technologies.
If higher toughness and impact resistance are required, H13, DC53, Cr12MoV modified materials or 42CrMo can be selected; If higher wear resistance and longer mold life are required, powder high-speed steel, ASP-type powder steel, or cemented carbide can be chosen; If ordinary low-cost mold parts are needed, Cr12MoV, T10, 45# steel, or 40Cr can be chosen; If hot work die performance is required, hot work die steels such as H13 and SKD61 should be selected; If corrosion-resistant molds are needed, S136 or stainless mold steel can be chosen.
If customers need to manufacture cold stamping dies, punches, cutting cuts, wear-resistant inserts, or precision cold work mold parts, with core requirements for hardness and wear resistance, SKD11 is a suitable choice. If the customer's parts need to withstand significant impact, repeated bending, welding, or high-temperature hot working environments, SKD11 is not recommended; instead, better toughness alloy steel, hot work mold steel, or specialized tool steel should be considered.
After uploading 3D/2D drawings and supplementing materials, quantities, tolerances, surface treatments, and delivery requirements, XPartsLab will provide next steps in 3D printing manufacturability, cost, and delivery pathways.
