Pattern and casting
Pattern, molding, and casting plans are built around the part's working conditions.
Casteng
Critical decisions from part concept to casting process are clarified by reading design, simulation, pattern, casting, and machining requirements together.
At the beginning of product development, geometry, material standard, operating conditions, and machinability are evaluated together to reduce risk before casting starts.
Casting behavior, hot spots, feeding needs, and cooling scenarios are analyzed with a simulation mindset, reducing sample loops and supporting controlled series decisions.
Pattern, molding, and casting plans are built around the part's working conditions.
Critical surfaces, tolerance chains, and assembly references move into the machining plan.
Packaging, documents, and quality records are checked together before delivery.
Casting & Forging Materials
We offer a wide spectrum of casting materials in accordance with international standards to meet the specific load and quality requirements of your application.
according to DIN EN 1561 (old: DIN 1691)
• EN-GJL-150 to 350
according to DIN EN 1563 (old: DIN 1693)
• EN-GJS-400 to 800 • GJS-SiMo (Silicon-Molybdenum alloy) • Solid solution strengthened ductile iron (GJS-500-14 to GJS-600-10)
according to DIN EN 16079
• EN-GJV-300 to 500
according to DIN EN 1564
• EN-GJS-800-10 to EN-GJS-1400-1
according to DIN EN 13835
• On request
according to DIN EN standards
• Cast steel for general applications according to DIN EN 10293 • Cast steel for pressure vessels according to DIN EN 10213 • Corrosion-resistant cast steel according to DIN EN 10283 • Quenched and tempered cast steel according to SEW 510 • High-strength cast steel with good weldability according to SEW 520 • Low-temperature cast steel according to SEW 685 • Custom steel grades upon request
Production range by casting type and piece weight
Non-Ferrous Metals and Special Alloys
Copper has high electrical and thermal conductivity. It has good corrosion resistance and can be cold formed without special difficulty, significantly hardening in the process. A distinction is made between oxygen-containing (Cu-ETP), deoxidized (Cu-HCP and DHP), and oxygen-free (Cu-OF) copper. This is particularly important during heat treatment, welding, or brazing (hydrogen embrittlement).
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Brass has good corrosion resistance and is generally easy to machine. Unlike steel and aluminum alloys, brass cannot be hardened by heat treatment. However, strength can be controlled through the appropriate choice of alloy or mechanical forming (e.g. cold rolling, forging, or drawing).
More InformationBronze differs from brass due to better mechanical properties and higher corrosion resistance. A distinction is made between wrought alloys up to 8.5% tin content and casting alloys. However, bronzes include more than just copper-tin alloys. Copper-aluminum alloys, such as CuAl10Ni5Fe4, are also referred to as bronzes ('aluminum bronzes'), with larger dimensions and tubes cast from material CuAl10Ni5Fe4-C-GC.
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Red brass (gunmetal) has good sliding and emergency running properties, and is relatively wear and cavitation resistant. Cast bronze is characterized by high wear resistance and is used for heavy-duty sliding and gear components. Lead bronze is corrosion-resistant, has good sliding properties, and is used for axle bearings, as well as composite and mold casting material.
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