FabDigit

Copper Alloy TAg0.1

TAg0.1 is a silver-bearing copper (0.06–0.12 % Ag, equivalent to C11300) in the wrought pure-copper family, where the small silver addition raises softening and creep resistance without measurably reducing conductivity.

High cost $$$$

Reference datasheet — TAg0.1 is not in the instant-quote catalog. Upload your part and an engineer will quote it in this grade or suggest the closest stocked equivalent.

Values for the M condition

TAg0.1 tempers and conditions

TAg0.1 is supplied in 6 conditions, soft to hard. M is the default FabDigit quotes; the values on this page are for it.

Compare all 6 conditionsHide
Condition · open for datasheetBest forYield MPaTensile MPaElong. %HardnessConductivity
Hot rolled / hot extruded
Pick for cost-driven large-section and profiled busbars: the hot rolled or extruded state gives 100.5% IACS and 45% elongation close to annealed, but the surface carries mill scale.652204542 HB100.5 % IACS
MDefault
Thermomechanically controlled processed
Pick the soft annealed (O60) state for deep drawing, coil winding and subsequent cold work: 101% IACS and 48% elongation, at only 70 MPa yield.702354845 HB101 % IACS
Quarter hard
Choose quarter hard (about 11% cold work) for terminals and washers that need light bending plus some stiffness; 195 MPa yield with 30% elongation and 100% IACS.1952603065 HB100 % IACS
Half hard
Use half hard (about 21% cold work) for busbars, conductive strips and switch bridges that balance 250 MPa yield against 18% elongation.2503001880 HB99.5 % IACS
Hard drawn / hard rolled
Pick hard drawn or hard rolled stock (about 37% cold work) for commutator segments, rotor bars and contact wire; the silver addition retains 320 MPa yield after brazing or soldering heat cycles.3203658100 HB98 % IACS
Extra hard / spring
Choose the heavily cold worked H06–H08 strip or wire for springy conductive parts and fine contact wire needing maximum stiffness at 380 MPa yield; elongation falls to 3%.3804203115 HB97 % IACS

What is TAg0.1?

TAg0.1 is a silver-bearing copper (0.06–0.12 % Ag, equivalent to C11300) in the wrought pure-copper family, where the small silver addition raises softening and creep resistance without measurably reducing conductivity. It is chosen for electrical parts that run hot, holding 101 % IACS electrical conductivity, 390 W/m·K thermal conductivity and service to 300 °C, and is supplied as strip, wire, rod and commutator profiles. It carries a silver cost premium over C11000, machines poorly like all pure coppers, and welding anneals the heat-affected zone; use C11000 where softening resistance is not required. TAg0.1 has a density of 8.9 g/cm³ (0.322 lb/in³), heavier than 77% of copper alloy grades. It melts at 1,070°C (1,958 °F). TAg0.1 has a yield strength of 70 MPa (10.2 ksi) and a tensile strength of 235 MPa (34.1 ksi) — weaker than 93% of copper alloy grades. Elongation at break is 48% and the elastic modulus is 115 GPa (16.7 Msi).

What is TAg0.1 used for?

  • commutator bars
  • motor windings
  • high-temperature electrical contacts

Advantages

  • High electrical conductivity — 101 % IACS, better than 98% of copper alloy grades
  • Ductile — tolerates forming and impact — 48%, better than 97% of copper alloy grades
  • Conducts heat well — 390 W/m·K (225.3 BTU/hr·ft·°F), better than 96% of copper alloy grades
  • Forms and bends easily — 95/100, better than 94% of copper alloy grades
  • High service temperature — 300°C (572 °F), better than 85% of copper alloy grades

Limitations

  • Low strength — 70 MPa (10.2 ksi), worse than 93% of copper alloy grades
  • Difficult to machine — 25/100, worse than 86% of copper alloy grades

TAg0.1 properties

Typical room-temperature values for TAg0.1-M; bars are the position among copper alloy grades.

Physical3

TAg0.1 has a density of 8.9 g/cm³ (0.322 lb/in³), heavier than 77% of copper alloy grades. It melts at 1,070°C (1,958 °F).

Density8.9 g/cm³0.32 lb/in³
Melting Point (Solidus)1,070°C1,958 °F
Liquidus Temperature1,083°C1,981 °F

Mechanical12

TAg0.1 has a yield strength of 70 MPa (10.2 ksi) and a tensile strength of 235 MPa (34.1 ksi) — weaker than 93% of copper alloy grades. Elongation at break is 48% and the elastic modulus is 115 GPa (16.7 Msi).

Elastic (Young's) Modulus115 GPa16.7 Msi
Shear Modulus44 GPa6.4 Msi
Bulk Modulus140 GPa20.3 Msi
Poisson's Ratio0.34
Tensile Strength (Ultimate)235 MPa34.1 ksi
Yield Strength (0.2% offset)70 MPa10.2 ksi
Elongation at Break48%
Reduction in Area75%
Shear Strength150 MPa21.8 ksi
Fatigue Strength (Endurance Limit)78 MPa11.3 ksi
Hardness, Brinell45 HB
Hardness, Vickers50 HV

Thermal6

TAg0.1 is rated for continuous service to 300°C (572 °F). It conducts heat at 390 W/m·K (225.3 BTU/hr·ft·°F), better than 96% of copper alloy grades. Thermal expansion is 17.7 µm/m·K (9.83 µin/in·°F).

Thermal Conductivity390 W/m·K225 BTU/hr·ft·°F
Specific Heat Capacity385 J/kg·K0.09 BTU/lb·°F
Thermal Expansion (CTE, 20–100 °C)17.7 µm/m·K9.8 µin/in·°F
Latent Heat of Fusion205 J/g88.1 BTU/lb
Max Service Temperature (continuous)300°C572 °F
Min Service Temperature-200°C-328 °F

Electrical3

TAg0.1 conducts electricity at 101 % IACS, better than 98% of copper alloy grades.

Electrical Conductivity101 % IACS
Electrical Resistivity1.71×10⁻⁸ Ω·m0.673 µΩ·in
Magnetic Responsenon-magnetic

Chemical & Environmental3

Corrosion resistance is good (62/100), worse than 57% of copper alloy grades.

Galvanic Potential (seawater, vs SCE)-0.25 V
Corrosion ResistanceGood62/100
Chemical Resistance Summary—

Sustainability4

Producing a kilogram of TAg0.1 takes about 57 MJ of energy and emits 3.8 kg of CO₂ — less than 52% of copper alloy grades. Typical recycled content is 30%.

Embodied Energy (primary production)57 MJ/kg24,506 BTU/lb
Embodied Carbon (primary production)3.8 kg CO₂/kg
Embodied Water260 L/kg31.2 gal/lb
Typical Recycled Content30%

Manufacturability8

TAg0.1's machinability is poor (25/100, worse than 86% of copper alloy grades); weldability fair (40/100); formability excellent (95/100).

MachinabilityPoor25/100
Machinability Rating (AISI 1212 = 100 %)18%
WeldabilityFair40/100
Formability (cold)Excellent95/100
CastabilityFair45/100
Brazeability / SolderabilityExcellent88/100
PolishabilityVery good78/100
Anodizing Response—

Common Calculations5

Specific Strength (UTS / density)calculated26 kN·m/kg
Specific Stiffness (E / density)calculated12.9 MN·m/kg
Modulus of Resiliencecalculated21 kJ/m³
Thermal Diffusivitycalculated113.8 mm²/s
Thermal Shock Resistance Indexcalculated45

Values are nominal handbook figures for design screening. Certified mill or lot data ships with every FabDigit order on request.

Strength versus weight in the copper alloy family

Yield strength against density for every copper alloy grade FabDigit runs. TAg0.1 is highlighted; hover a dot for its name, or open the interactive family chart.

501002005001,0007.588.599.5Density (g/cm³)Yield strength (MPa) — log scaleTAg0.1

Working with TAg0.1

Is TAg0.1 easy to machine?

Shows the same built-up-edge and gumming behaviour as pure copper: sharp, high positive-rake edges, high speed with light feed and plenty of emulsion coolant. Machinability is roughly one quarter that of free-cutting brass, and hard tempers give a better surface finish than the soft temper.

Can TAg0.1 be welded?

Very high thermal conductivity demands high heat input or preheat; TIG/MIG with ERCu filler or resistance welding are preferred. Avoid reducing atmospheres and hydrogen-bearing processes on oxygen-containing lots to prevent hydrogen embrittlement, and note that the weld zone anneals and loses the work-hardening benefit of the silver addition.

Can TAg0.1 be formed, bent or molded?

Cold formability in the soft temper is outstanding (deep drawing, bending, coil winding); in hard tempers keep bend radius at 2t or more. Interanneal at 400–600 °C; stress-relief can be run at higher temperatures than pure copper without softening.

TAg0.1 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
Agsilver counted within the Cu+Ag total0.06 – 0.120.09
Cu+Agminimum combined content specified in GB/T 5231≥ 99.999.95
Otough-pitch type; oxygen-free TAg0.1-01 has O ≤ 0.003≤ 0.050.03
Bi≤ 0
Sb≤ 0.01
As≤ 0.01
Fe≤ 0.01
Pb≤ 0.01
S≤ 0.01
Sn≤ 0
Zn≤ 0.01
Cubalance

What surface finishes work on TAg0.1?

Not anodizable. Silver, tin or nickel plating is normal to improve contact resistance and oxidation resistance; chemical polishing plus passivation and clear lacquer also prevents tarnish.

Surface treatments FabDigit runs on copper alloy parts — pick them in the quote configurator or call them out on the drawing. Each links to its datasheet in the surface-finish library (thickness, specs, call-out, material verdicts).

Equivalent designations

Standards and trade names that resolve to Copper Alloy TAg0.1 in FabDigit's catalog. Equivalence is nominal — check the exact specification when certification matters.

Similar grades
C11300

How much does TAg0.1 cost?

TAg0.1 is a high-cost copper alloy ($$$$), pricier than about 78% of the materials FabDigit quotes. Part price depends far more on geometry, tolerance and quantity than on the raw stock — upload a CAD file for a live quote.

TAg0.1 — frequently asked

What is TAg0.1 used for?

TAg0.1 is typically used for commutator bars, motor windings and high-temperature electrical contacts. In short: softening-resistant conductor copper; full 101 % IACS conductivity; silver-addition cost premium.

What is the yield strength of TAg0.1?

TAg0.1 has a typical yield strength of 70 MPa (10.2 ksi) and a tensile strength of 235 MPa (34.1 ksi) — weaker than 93% of copper alloy grades. Strength varies by condition: see the 6 listed tempers.

Is TAg0.1 easy to machine?

Not especially — machinability is rated poor (25/100, worse than 86% of copper alloy grades). Shows the same built-up-edge and gumming behaviour as pure copper: sharp, high positive-rake edges, high speed with light feed and plenty of emulsion coolant. Machinability is roughly one quarter that of free-cutting brass, and hard tempers give a better surface finish than the soft temper.

Can TAg0.1 be welded?

With care — weldability is rated fair (40/100). Very high thermal conductivity demands high heat input or preheat; TIG/MIG with ERCu filler or resistance welding are preferred. Avoid reducing atmospheres and hydrogen-bearing processes on oxygen-containing lots to prevent hydrogen embrittlement, and note that the weld zone anneals and loses the work-hardening benefit of the silver addition.

What surface finishes work on TAg0.1?

Not anodizable. Silver, tin or nickel plating is normal to improve contact resistance and oxidation resistance; chemical polishing plus passivation and clear lacquer also prevents tarnish.

Can TAg0.1 be formed, bent or molded?

Cold formability in the soft temper is outstanding (deep drawing, bending, coil winding); in hard tempers keep bend radius at 2t or more. Interanneal at 400–600 °C; stress-relief can be run at higher temperatures than pure copper without softening.

What is the maximum service temperature of TAg0.1?

TAg0.1 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 TAg0.1-M and TAg0.1-T?

M is the default condition — pick the soft annealed (O60) state for deep drawing, coil winding and subsequent cold work: 101% IACS and 48% elongation, at only 70 MPa yield. T: choose the heavily cold worked H06–H08 strip or wire for springy conductive parts and fine contact wire needing maximum stiffness at 380 MPa yield; elongation falls to 3%. Yield strength is 70 MPa in M versus 380 MPa in T.

How much does TAg0.1 cost?

TAg0.1 is a high-cost copper alloy ($$$$), pricier than about 78% of the materials FabDigit quotes. Part price depends far more on geometry, tolerance and quantity than on the raw stock — upload a CAD file for a live quote.

Sources

  1. ASTM B152/B152M Copper Sheet, Strip, Plate and Rolled Bar (incl. C11300) — ASTM International (2019)
  2. CDA Alloy Datasheet C11300 (Silver-bearing tough pitch copper) — Copper Development Association (2023)
  3. ASM Handbook Vol.2 — Properties and Selection: Nonferrous Alloys — ASM International (1990)
  4. ASM Handbook Vol.13B — Corrosion: Materials (Copper and Copper Alloys) — ASM International (2005)

Property data is compiled from published supplier and standards handbooks and normalised for comparison; hardness values on non-Brinell scales are converted approximately for charting only. Manufacturability limits are FabDigit quote-engine defaults and may be relaxed by engineering review. Nothing on this page is a certification — request mill certs, CoC or material test reports with your order.