Materials / Compare

Copper C110 vs. Iron

Compare Copper C110 vs. Iron strength, stiffness, weight and thermal properties.

Copper C110Wrought
IronWrought
MechanicalCopper C110Iron
Yield strength69MPa1186MPa22.7x stronger
Ultimate tensile strength221MPa1290MPa231% stronger
Elongation at break55%145% more ductile38%2
Young's modulus (stiffness)117GPa1207GPa21.77x stiffer
Density8,913kg/m³17,860kg/m³213% lighter
Strength to weight7.74kN·m/kg23.7kN·m/kg3.06x higher
Stiffness to weight13.1MN·m/kg26.3MN·m/kg2x higher
Poisson's ratio0.3430.2824
Shear modulus43.7GPa80.7GPa1.85x stiffer in shear
Bulk modulus122GPa158GPa30% higher
Speed of sound3,626m/s5,132m/s42% faster
1k10k0.1110100Density (kg/m³)Young's modulus (GPa)Plastic PLAPlastic PETGPlastic ABSPlastic TPUPlastic NylonWoodAluminumSteelTitaniumSteel AISI 1018Stainless Steel 304Stainless Steel 316Aluminum 6061-T6Aluminum 7075-T6Brass C360Copper C10100Copper C12200GlassSteel AISI 1045Steel AISI 4340Steel A992Stainless Steel 303Stainless Steel 17-4PHAluminum 2024-T351Aluminum 5052-H32Aluminum 7050-T7451Titanium Ti-6Al-4VBrass C260Nickel Inconel 718Magnesium AZ31B-H24Zinc Zamak 3Plastic ABS (bulk/injection)Plastic PolycarbonatePlastic POM/AcetalPlastic Nylon PA6Plastic Nylon PA66Plastic PEEKPlastic UHMWPEPlastic HDPEPlastic PolypropylenePlastic PMMAFDM ASAFDM PolycarbonateFDM PAHT-CFFDM HIPSSLA Resin StandardSLA Resin Tough 2000SLS PA12 NylonDMLS AlSi10Mg AluminumDMLS Ti-6Al-4V ELI TitaniumDMLS 316L Stainless SteelDMLS 17-4PH Stainless SteelConcretePCB Laminate FR-4SiliconCeramic Alumina 96%Ceramic Aluminum NitrideAluminum A380Aluminum 6063-T6Aluminum 1100-OAluminum 3003-OAluminum ADC12Magnesium AZ91DSolder SAC305Plastic PBT GF30Plastic PPS GF40Plastic LCP GF30Copper C110Iron
Stiffness against densityHigher and further left: stiffer for its weight
1k10k101001kDensity (kg/m³)Yield strength (MPa)Plastic PLAPlastic PETGPlastic ABSPlastic TPUPlastic NylonRubberWoodAluminumSteelTitaniumSteel AISI 1018Stainless Steel 304Stainless Steel 316Aluminum 6061-T6Aluminum 7075-T6Brass C360Copper C10100Copper C12200GlassSteel AISI 1045Steel AISI 4340Steel A992Stainless Steel 303Stainless Steel 17-4PHAluminum 2024-T351Aluminum 5052-H32Aluminum 7050-T7451Titanium Ti-6Al-4VBrass C260Nickel Inconel 718Magnesium AZ31B-H24Zinc Zamak 3Plastic ABS (bulk/injection)Plastic PolycarbonatePlastic POM/AcetalPlastic Nylon PA6Plastic Nylon PA66Plastic PEEKPlastic PTFEPlastic UHMWPEPlastic HDPEPlastic PolypropylenePlastic PMMAFDM ASAFDM PolycarbonateFDM PAHT-CFFDM HIPSSLA Resin StandardSLA Resin Tough 2000SLA Resin Elastic 50ASLS PA12 NylonDMLS AlSi10Mg AluminumDMLS Ti-6Al-4V ELI TitaniumDMLS 316L Stainless SteelDMLS 17-4PH Stainless SteelBrickPCB Laminate FR-4SiliconCeramic Alumina 96%Aluminum A380Aluminum 6063-T6Aluminum 1100-OAluminum 3003-OAluminum ADC12Magnesium AZ91DSolder SAC305Plastic PBT GF30Plastic PPS GF40Plastic LCP GF30Copper C110Iron
Strength against densityHigher and further left: stronger for its weight
ThermalCopper C110Iron
Thermal conductivity391W/m·K15.34x more heat through a fin73.2W/m·K2
Thermal expansion16.9µm/m·K1mean13.7µm/m·K223% less
100 mm part over a 50 °C swing84.5µm growth68.5µm growth23% less
Specific heat385J/kg·K1450J/kg·K217% higher
Heats up and cools (diffusivity)114mm²/s5.5x faster20.7mm²/s
Thermal shock resistance8,992W/m2.61x more resistant3,447W/m
Melting pointsolidus-liquidus1,065–1,083°C11,532°C2
1k10k0.1110100Density (kg/m³)Thermal conductivity (W/m·K)Plastic PLAPlastic PETGPlastic ABSPlastic NylonRubberWoodAluminumSteelTitaniumSteel AISI 1018Stainless Steel 304Stainless Steel 316Aluminum 6061-T6Aluminum 7075-T6Brass C360Copper C10100Copper C12200GlassSteel AISI 1045Steel AISI 4340Steel A992Stainless Steel 303Stainless Steel 17-4PHAluminum 2024-T351Aluminum 5052-H32Aluminum 7050-T7451Titanium Ti-6Al-4VBrass C260Nickel Inconel 718Magnesium AZ31B-H24Zinc Zamak 3Plastic ABS (bulk/injection)Plastic PolycarbonatePlastic POM/AcetalPlastic Nylon PA6Plastic Nylon PA66Plastic PEEKPlastic PTFEPlastic UHMWPEPlastic HDPEPlastic PolypropylenePlastic PMMAFDM ASAFDM PolycarbonateFDM HIPSSLA Resin StandardDMLS AlSi10Mg AluminumDMLS Ti-6Al-4V ELI TitaniumDMLS 316L Stainless SteelDMLS 17-4PH Stainless SteelConcreteBrickPCB Laminate FR-4SiliconCeramic Alumina 96%Ceramic Aluminum NitrideAluminum A380Aluminum 6063-T6Aluminum 1100-OAluminum 3003-OAluminum ADC12Magnesium AZ91DSolder SAC305Plastic PBT GF30Plastic PPS GF40Plastic LCP GF30Copper C110Iron
Thermal conductivity against densityHigher and further left: spreads more heat for its weight
0.111010010100Thermal conductivity (W/m·K)Thermal expansion (µm/m·K)Plastic PETGPlastic ABSPlastic NylonWoodAluminumSteelTitaniumSteel AISI 1018Stainless Steel 304Stainless Steel 316Aluminum 6061-T6Aluminum 7075-T6Brass C360Copper C10100Copper C12200GlassSteel AISI 1045Steel AISI 4340Steel A992Stainless Steel 303Stainless Steel 17-4PHAluminum 2024-T351Aluminum 5052-H32Aluminum 7050-T7451Titanium Ti-6Al-4VBrass C260Nickel Inconel 718Magnesium AZ31B-H24Zinc Zamak 3Plastic ABS (bulk/injection)Plastic PolycarbonatePlastic POM/AcetalPlastic Nylon PA6Plastic Nylon PA66Plastic PEEKPlastic PTFEPlastic UHMWPEPlastic HDPEPlastic PolypropylenePlastic PMMAFDM ASAFDM PolycarbonateFDM HIPSSLA Resin StandardDMLS AlSi10Mg AluminumDMLS Ti-6Al-4V ELI TitaniumDMLS 316L Stainless SteelDMLS 17-4PH Stainless SteelConcreteBrickPlywoodPCB Laminate FR-4SiliconCeramic Alumina 96%Ceramic Aluminum NitrideAluminum A380Aluminum 6063-T6Aluminum 1100-OAluminum 3003-OAluminum ADC12Magnesium AZ91DSolder SAC305Plastic PBT GF30Plastic PPS GF40Plastic LCP GF30Copper C110Iron
Thermal expansion against thermal conductivityLower and further right: warps less when heated
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Sources4 documents: Copper Development Association, Cleveland-Cliffs, Wieland, National Institute of Standards and Technology
Copper C110
C11000 ETP copper, annealed to 0.050 mm grain size (OS050), 1 in. rod, copper.org typical values
Iron
Cleveland-Cliffs / AK Steel ARMCO Pure Iron Product Data Bulletin (07/2022): Table 1 typical physical properties, Table 2 typical mechanical properties after SRA/recrystallization anneal.
  1. 1
    C11000 Alloy (copper.org)Copper Development Associationarchived copyCopper C110 · Yield strength: typical, 0.5% extension under loadCopper C110 · Ultimate tensile strength: typicalCopper C110 · Elongation at break: typical, 1 in. rodCopper C110 · Young's modulus (stiffness): typicalCopper C110 · Density: nominalCopper C110 · Thermal conductivity: typical, 20 °CCopper C110 · Thermal expansion: typical, mean 20-100 °CCopper C110 · Specific heat: typical, 20 °CCopper C110 · Melting point: solidus-liquidus
  2. 2
    ARMCO Pure Iron Product Data Bulletin (2022)Cleveland-Cliffsarchived copyIron · Yield strength: typical (0.2% YS), hot rolled + SRA/recrystallization annealIron · Ultimate tensile strength: typical, SRA/recrystallization annealIron · Elongation at break: typical, gauge 4D0Iron · Young's modulus (stiffness): typical, after SRA/recrystallization annealIron · Density: typicalIron · Thermal conductivity: typical at 20 °CIron · Thermal expansion: mean, 20-399 °CIron · Specific heat: typicalIron · Melting point: typical
  3. 3
    Wieland-K32 (Cu-ETP, C11000) Data SheetWielandarchived copyCopper C110 · Poisson's ratio: reference value at room temperature (Wieland-K32 = Cu-ETP = C11000, rolled products)
  4. 4
    Elastic Properties of Metals and Alloys, I. Iron, Nickel, and Iron-Nickel Alloys, J. Phys. Chem. Ref. Data 2 (1973)National Institute of Standards and Technologyarchived copyIron · Poisson's ratio: NIST critically evaluated best value (polycrystalline iron)

Each number points to the document that states it, with the exact basis. Values without a number are computed from the sourced ones. "Not sourced" means no citable source states it (or only a specification minimum); figures computed from it are left out too.

Questions

Mechanical

Is Copper C110 stronger than Iron?

Iron is stronger: its yield strength is 186 MPa against 69 MPa for Copper C110 (2.7x).

Which is lighter, Copper C110 or Iron?

Iron is lighter: 7,860 kg/m³ against 8,913 kg/m³ for Copper C110.

Which is stiffer, Copper C110 or Iron?

Iron is stiffer: Young's modulus 207 GPa against 117 GPa for Copper C110, so the same part in Iron deflects less under the same load.

Which is lighter for the same job, Copper C110 or Iron?

For the same stiffness or strength: Iron is lighter for a stiff rod or tie (tension), stiff beam (bending), stiff panel or plate, strong rod or tie, strong beam, strong panel or plate.

Part that must beCopper C110Iron
Stiff rod or tie (tension)2x heavierlighter
Stiff beam (bending)1.51x heavierlighter
Stiff panel or plate37% heavierlighter
Strong rod or tie3.06x heavierlighter
Strong beam2.2x heavierlighter
Strong panel or plate1.86x heavierlighter

For the same stiffness or strength, mass scales with density over stiffness (or strength) raised to a power set by how the part is loaded: 1 for a rod in tension, 1/2 for a beam in bending, 1/3 for a panel (the standard material-selection indices).

Which is more ductile, Copper C110 or Iron?

Copper C110 stretches further before it breaks: 55% elongation at break against 38% for Iron.

Thermal

Which conducts heat better, Copper C110 or Iron?

Copper C110 conducts heat better: 391 W/m·K against 73.2 W/m·K for Iron.

Which expands less with temperature?

Iron expands less: 13.7 µm/m·K against 16.9 µm/m·K for Copper C110.

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