Suitable for manufacturing highly conductive parts, high thermal conductivity parts, welding electrodes, mold thermal inserts, wear-resistant conductive parts, connecting terminals, and copper alloy functional components that require both strength and thermal conductivity.
C18150 Chromium Zirconium Copper is a high-strength, highly conductive copper alloy material, mainly using copper as the matrix, with added elements such as chromium and zirconium to enhance strength, hardness, wear resistance, anti-softening ability, and high-temperature stability. Compared toPure CopperT2 and TU2 Oxygen-Free Copper, C18150 has better strength, wear resistance, and high-temperature softening ability; Compared to beryllium copper C17200, it generally has better electrical and thermal conductivity, but its elasticity and ultimate strength are not as good as beryllium copper. It is commonly used in electrodes, conductive clamps, welding electrodes, thermal inserts, connectors, wear-resistant conductive parts, and mold thermal conductive parts.
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.
Good electrical conductivity, thermal conductivity, strength higher thanPure Copperand oxygen-free copper, good wear resistance, good softening resistance, suitable for electrodes and conductive fixtures, suitable for high-temperature conductive and thermal conductivity scenarios, suitable for mold thermal conductive inserts and welding electrodes, with balanced overall performance.
Welded electrodes, resistance welding electrodes, spot welding electrodes, conductive clamps, conductive blocks, electrode bases, electrode caps, mold thermal inserts, injection mold thermal conductive parts, heat dissipation structural parts, connecting terminals, conductive connectors, copper bushings, wear-resistant conductive parts, thermal conductive parts, electronic and electrical copper parts, conductive parts for industrial equipment.
Extremely low-cost ordinary copper parts, high-elastic spring clips, high-frequency elastic snaps, food direct contact parts, medical implant parts, strong acid and strong alkali environment parts, seawater long-term contact parts, ultra-high strength load-bearing structural parts, lightweight structural parts, and parts requiring only ordinary decorative 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 | Suitable for manufacturing highly conductive parts, high thermal conductivity parts, welding electrodes, mold thermal inserts, wear-resistant conductive parts, connecting terminals, and copper alloy functional components that require both strength and thermal conductivity. |
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| Precision performance | C18150 Chromium Zirconium Copper is suitable for CNC turning, milling, drilling, tapping, reaming, wire cutting, and precision machining. Compared toPure Copper, C18150 has higher strength and hardness, and generally better machining stability, but issues such as burrs, tool sticking, and surface scratches during copper alloy processing still need attention. It is recommended to separately control tolerances and surface roughness on the electrode end surfaces, conductive contact surfaces, mold thermal mating surfaces, and assembly holes. |
| Dimensional tolerances | The conventional dimensional tolerances of CNC machining C18150 Chromium Zirconium Copper can be referenced as ± 0.02mm to ±0.10mm, while ordinary structural parts can be evaluated at ±0.10mm-±0.20mm. Electrodes, conductive fixtures, mating surfaces, hole positions, and mold inserts can be further controlled according to specific requirements. These values are standard reference ranges and do not guarantee absolute tolerances for all structures. Actual values should be confirmed based on part dimensions, machining methods, heat treatment status, surface treatment, and assembly requirements. |
| Minimum Wall Thickness | The wall thickness of ordinary CNC machined structures is recommended to be no less than 0.8mm-1.0mm. Since C18150 is commonly used in conductive, thermal, and wear-resistant structures, it is not recommended to design the load-bearing positions, threaded positions, press-fitting positions, and high-current contact points too thin. Thin-walled electrodes, thin conductors, and large-area heat sinks should focus on evaluating deformation, heat generation, and assembly strength. |
| Recommended wall thickness | General conductive parts and connectors are recommended at 1.0mm-3.0mm; electrodes, conductive blocks, mold thermal inserts, heat sink blocks, and assembly load-bearing positions are recommended at least 2.0mm; high-current conductive parts should be structurally designed based on current capacity, heat generation, heat dissipation conditions, and contact area. |
| Minimum aperture | CNC machining can achieve smaller hole diameters, but small and deep holes require attention to chip removal, burrs, and tool strength. For general designs, the recommended aperture is no less than 1.0mm. It is recommended to reserve machining allowance for electrode cooling holes, positioning holes, threaded holes, assembly holes, and conductive connection holes. If necessary, drilling, reaming, boring, deburring, and cleaning should be used. |
| Assembly clearance | For precision metal assembly, one side can be reserved at 0.02mm-0.10mm according to fitting requirements; for ordinary plug-in and assembly, it is recommended to reserve 0.10mm-0.30mm per side. If parts require nickel, silver, gold, tin, or anti-oxidation treatments, additional gaps should be reserved according to the thickness of the coating. The conductive contact position should not be too loose; it should be evaluated separately based on contact pressure, contact area, surface treatment, and conductivity requirements. |
| Detailed performance | C18150 Chromium Zirconium Copper suitable for machining holes, grooves, steps, chamfers, threads, conductive contact surfaces, electrode terminals, cooling holes, heat dissipation surfaces, and simple structural details. Compared toPure Copper, C18150 offers better detail processing stability, but overly fine sharp corners, thin edges, small text, and microstructures may still be affected by burrs, surface treatment, and polishing. LOGO, number, and marking are recommended to be achieved through laser marking, engraving, or etching. |
| Surface effect | C18150 Chromium Zirconium Copper original surface usually appears copper-red, orange-red, or yellowish-red metallic, and is somewhat steadier thanPure Copper. CNC machining produces a brighter metal surface, polishing enhances gloss, and sandblasting produces a matte copper alloy surface. Long-term exposure to air gradually oxidizes and darkens, with the surface possibly showing dark red, brown, or oxidation spots. If long-term conductivity and appearance are needed, nickel, silver, gold, tin, or oxidation protection can be applied. |
Based on material characteristics and suitable product ranges, customer needs are broken down into easier application directions to determine.
Welded electrodes, resistance welding electrodes, spot welding electrodes, conductive clamps, conductive blocks, electrode bases, electrode caps, mold thermal inserts, injection mold thermal conductive parts, heat dissipation structural parts, connecting terminals, conductive connectors, copper bushings, wear-resistant conductive parts, thermal conductive parts, electronic and electrical copper parts, conductive parts for industrial equipment.
Suitable for manufacturing highly conductive parts, high thermal conductivity parts, welding electrodes, mold thermal inserts, wear-resistant conductive parts, connecting terminals, and copper alloy functional components that require both strength and thermal conductivity.
C18150 Chromium Zirconium Copper features a balance of electrical conductivity, thermal conductivity, strength, and wear resistance, making it suitable for applications that require both electrical and thermal conductivity while requiring a certain level of mechanical strength. It is not as soft asPure Copper, nor as easy to cut as Brass; instead, it is more suitable for welding electrodes, conductive fixtures, mold thermal conductive inserts, and high-performance copper alloy parts. After proper heat treatment, C18150 can achieve better strength, hardness, and resistance to softness.
Based on wall thickness, hole position, assembly clearance, dimensional tolerances, and material usage risks, determine in advance whether the part structure is suitable for C18150 Chromium Zirconium Copper.
Post-processing of C18150 Chromium Zirconium Copper 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 C18150 Chromium Zirconium Copper 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 conductivity and lower oxygen content are needed, TU2 Oxygen-Free Copper can be chosen; If ordinary conductivity and thermal conductivity are needed at lower cost, Pure CopperT2 is an option; If higher elasticity and fatigue performance are required, beryllium copper C17200 can be chosen; If better machinability and low-cost small hardware are needed, HPb59-1 lead Brass or H62Brass can be chosen; If higher corrosion resistance is required,316L Stainless Steel, TC4 Titanium Alloy (Ti-6Al-4V), or nickel-plated copper parts can be chosen.
If customers need parts with good electrical and thermal conductivity, strength, wear resistance, and resistance to high-temperature softening at the same time, C18150 Chromium Zirconium Copper is a very suitable choice. If it's just ordinary copper busbars, conductive sheets, or heat sinks, Pure CopperT2 or TU2 Oxygen-Free Copper is usually more economical. If spring clips, connector elastic terminals, or long-life elastic structures are needed, priority should be given to beryllium copper C17200, phosphor bronze, or stainless steel spring materials.
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.
