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Copper Alloy C95410-F (As fabricated)

Temper · default condition

UNS C95410

Standard stock condition for bushings, wear plates and general marine castings where 585 MPa class strength is enough.

High cost $$$$

Values for the F condition

Other C95410 tempers and conditions

C95410 is listed in 2 conditions; see the grade overview at C95410.

Compare all 2 conditionsHide
Condition · open for datasheetBest forYield MPaTensile MPaElong. %HardnessConductivity
FDefaultThis page
As fabricated
Standard stock condition for bushings, wear plates and general marine castings where 585 MPa class strength is enough.24158613170 HB13 % IACS
quench hardened and temper annealed
Choose when maximum strength, hardness and wear life are needed — e.g. heavily loaded worm gears, forming dies and valve trim; ductility drops slightly.310689820 HRC13 % IACS

What is C95410-F?

C95410-F is C95410 in the F temper — standard stock condition for bushings, wear plates and general marine castings where 585 MPa class strength is enough. C95410-F has a yield strength of 241 MPa (35 ksi) and a tensile strength of 586 MPa (85 ksi) — stronger than 53% of copper alloy grades. Elongation at break is 13% and the elastic modulus is 110 GPa (16 Msi). C95410-F has a density of 7.45 g/cm³ (0.269 lb/in³), lighter than 99% of copper alloy grades. It melts at 1,038°C (1,900 °F).

Advantages

  • Lightweight — 7.45 g/cm³ (0.269 lb/in³), better than 99% of copper alloy grades
  • Good corrosion resistance — 76/100, better than 91% of copper alloy grades
  • High service temperature — 300°C (572 °F), better than 85% of copper alloy grades
  • Readily welded — 65/100, better than 80% of copper alloy grades

Limitations

  • Hard to polish — 65/100, worse than 87% of copper alloy grades

C95410-F properties

Typical room-temperature values for C95410-F; 39 are specific to this condition. Other listed values are C95410 reference data and may not represent this condition. Bars are the position among copper alloy grades.

Physical3

C95410-F has a density of 7.45 g/cm³ (0.269 lb/in³), lighter than 99% of copper alloy grades. It melts at 1,038°C (1,900 °F).

Density7.45 g/cm³0.27 lb/in³
Melting Point (Solidus)1,038°C1,900 °F
Liquidus Temperature1,060°C1,940 °F

Mechanical16

C95410-F has a yield strength of 241 MPa (35 ksi) and a tensile strength of 586 MPa (85 ksi) — stronger than 53% of copper alloy grades. Elongation at break is 13% and the elastic modulus is 110 GPa (16 Msi).

Elastic (Young's) Modulus110 GPa16 Msi
Shear Modulus42 GPa6.1 Msi
Bulk Modulus105 GPa15.2 Msi
Poisson's Ratio0.32
Tensile Strength (Ultimate)586 MPa85 ksi
Yield Strength (0.2% offset)241 MPa35 ksi
Elongation at Break13%
Reduction in Area15%
Compressive Strength250 MPa36.3 ksi
Shear Strength345 MPa50 ksi
Fatigue Strength (Endurance Limit)200 MPa29 ksi
Fracture Toughness (K_IC)45 MPa·√m41 ksi·√in
Charpy V-Notch Impact (RT)20 J14.8 ft·lbf
Hardness, Brinell170 HB
Hardness, Rockwell B88 HRB
Hardness, Vickers178 HV

Thermal6

C95410-F is rated for continuous service to 300°C (572 °F). It conducts heat at 58.6 W/m·K (33.9 BTU/hr·ft·°F), worse than 63% of copper alloy grades. Thermal expansion is 16.2 µm/m·K (9 µin/in·°F).

Thermal Conductivity58.6 W/m·K33.9 BTU/hr·ft·°F
Specific Heat Capacity419 J/kg·K0.1 BTU/lb·°F
Thermal Expansion (CTE, 20–100 °C)16.2 µm/m·K9 µin/in·°F
Latent Heat of Fusion220 J/g94.6 BTU/lb
Max Service Temperature (continuous)300°C572 °F
Min Service Temperature-200°C-328 °F

Electrical3

C95410-F conducts electricity at 13 % IACS, worse than 58% of copper alloy grades.

Electrical Conductivity13 % IACS
Electrical Resistivity1.33×10⁻⁷ Ω·m5.24 µΩ·in
Magnetic Responsenon-magnetic to weakly magnetic depending on iron-rich kappa phase distribution

Chemical & Environmental3

Corrosion resistance is very good (76/100), better than 91% of copper alloy grades.

Galvanic Potential (seawater, vs SCE)-0.25 V
Corrosion ResistanceVery good76/100
Chemical Resistance SummaryExcellent in seawater, brines, non-oxidising acids, and neutral salt solutions thanks to a self-healing alumina film; resists cavitation and erosion. Attacked by oxidising acids (nitric), ammonia and strong ammoniacal solutions; single-phase-free microstructure needed to avoid selective (de-aluminification) attack in stagnant hot chlorides.

Sustainability4

Producing a kilogram of C95410-F takes about 55 MJ of energy and emits 3.6 kg of CO₂ — less than 72% of copper alloy grades. Typical recycled content is 45%.

Embodied Energy (primary production)55 MJ/kg23,646 BTU/lb
Embodied Carbon (primary production)3.6 kg CO₂/kg
Embodied Water300 L/kg35.9 gal/lb
Typical Recycled Content45%

Manufacturability8

C95410-F's machinability is good (55/100, better than 71% of copper alloy grades); weldability good (65/100); formability poor (20/100).

MachinabilityGood55/100
Machinability Rating (AISI 1212 = 100 %)60%
WeldabilityGood65/100
Formability (cold)Poor20/100
CastabilityVery good75/100
Brazeability / SolderabilityFair35/100
PolishabilityGood65/100
Anodizing Responsen/a — copper-base alloy; use chemical/mechanical finishing or protective coatings instead

Common Calculations5

Specific Strength (UTS / density)calculated79 kN·m/kg
Specific Stiffness (E / density)calculated14.8 MN·m/kg
Modulus of Resiliencecalculated264 kJ/m³
Thermal Diffusivitycalculated18.8 mm²/s
Thermal Shock Resistance Indexcalculated19

Values are nominal handbook figures for design screening. Confirm any required mill or lot documentation when quoting.

Working with C95410-F

Is C95410 easy to machine?

Machines like a tough gummy bronze at ~60 % of AISI 1212 — use sharp positive-rake carbide, rigid setups, moderate speed with heavy feed and flood coolant; heat-treated stock is harder and abrasive due to kappa phases.

Can C95410 be welded?

GTAW/GMAW with matching aluminium-bronze filler (ERCuAl-A2/A3) works well; preheat 150–200 °C on heavy sections, remove alumina film with stainless brush, and re-heat-treat if TQ50 properties are required across the joint.

Can C95410 be formed, bent or molded?

Supplied as sand, centrifugal or continuous castings — feed generously with chills and bottom-gating to avoid alumina dross and shrinkage; not a cold-formable product.

What surface finishes work on C95410?

Takes a bright mechanical polish but oxidises to a golden-brown patina; use passivation/lacquer or elastomer seals for appearance parts, and avoid anodizing (not applicable to copper alloys).

C95410 chemical composition (wt %)

Limits by weight percent from the governing specification, written the way the spec states them — a single maximum for impurities, a range for alloying elements, and the base element as balance. Nominal is the typical mid-range value.

ElementSpec limit (wt %)Nominal
Al10 – 11.510.8
Fe3 – 54
NiNi addition vs C95400 enables heat treatment response1.5 – 2.52
Mn≤ 0.50.3
Sitypical foundry limit≤ 0.25—
Zntypical foundry limit≤ 0.3—
Mgtypical foundry limit≤ 0.05—
Curemainder, 83.0 % min per ASTM B148≥ 83 (balance)—

C95410-F — frequently asked

What is C95410-F used for?

C95410-F is typically used for heavy-duty bushings, gears and wear plates. In short: heat-treatable aluminum bronze; stronger than C95400; weldable wear bronze.

What is the yield strength of C95410-F?

C95410-F has a typical yield strength of 241 MPa (35 ksi) and a tensile strength of 586 MPa (85 ksi) — stronger than 53% of copper alloy grades. Strength varies by condition: see the 2 listed tempers.

Is C95410-F easy to machine?

Reasonably — machinability is rated good (55/100, better than 71% of copper alloy grades). Machines like a tough gummy bronze at ~60 % of AISI 1212 — use sharp positive-rake carbide, rigid setups, moderate speed with heavy feed and flood coolant; heat-treated stock is harder and abrasive due to kappa phases.

Can C95410-F be welded?

Yes — weldability is rated good (65/100). GTAW/GMAW with matching aluminium-bronze filler (ERCuAl-A2/A3) works well; preheat 150–200 °C on heavy sections, remove alumina film with stainless brush, and re-heat-treat if TQ50 properties are required across the joint.

What surface finishes work on C95410-F?

Takes a bright mechanical polish but oxidises to a golden-brown patina; use passivation/lacquer or elastomer seals for appearance parts, and avoid anodizing (not applicable to copper alloys).

Can C95410-F be formed, bent or molded?

Supplied as sand, centrifugal or continuous castings — feed generously with chills and bottom-gating to avoid alumina dross and shrinkage; not a cold-formable product.

What is the maximum service temperature of C95410-F?

C95410-F is rated for continuous use to about 300°C (572 °F). Strength falls off well before that limit — check the elevated-temperature data for load-bearing parts.

What is the difference between C95410-F and C95410-TQ50?

F is the default condition — standard stock condition for bushings, wear plates and general marine castings where 585 MPa class strength is enough. TQ50: choose when maximum strength, hardness and wear life are needed — e.g. heavily loaded worm gears, forming dies and valve trim; ductility drops slightly. Yield strength is 241 MPa in F versus 310 MPa in TQ50.

Sources

  1. ASTM B148 — Aluminum-Bronze Sand Castings — ASTM International (2019)
  2. ASTM B505/B505M — Copper Alloy Continuous Castings — ASTM International (2018)
  3. CDA Alloy Datasheet C95410 — Copper Development Association (copper.org) (2023)
  4. ASM Handbook Vol.2 — Properties and Selection: Nonferrous Alloys — ASM International (1990)
  5. ASM Handbook Vol.13B — Corrosion: Materials — ASM International (2005)
  6. GB/T 1176 (ZCuAl10Fe4Ni4) — SAC (2013)

Property data is compiled from published supplier and standards handbooks and normalised for comparison. Nothing on this page is a certification — request mill certs, CoC or material test reports with your order.