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Aluminum ADC3 F-HVDC

Finish state

JIS ADC3

Pick when the casting must be weldable, riveted/self-pierce joined, or later heat treated — vacuum-assisted casting cuts entrapped gas.

Standard cost $$

Values for the F-HVDC condition

Other ADC3 tempers and conditions

ADC3 is listed in 5 conditions; see the grade overview at ADC3.

Compare all 5 conditionsHide
Condition · open for datasheetBest forYield MPaTensile MPaElong. %HardnessConductivity
F-HVDCThis page
F
Pick when the casting must be weldable, riveted/self-pierce joined, or later heat treated — vacuum-assisted casting cuts entrapped gas.160300872 HB29 % IACS
FDefault
As fabricated
Standard supply condition for high-pressure die castings; use unless heat treatment or dimensional stabilisation is specified.1703153.575 HB29 % IACS
Solution heat treated and overaged (stabilized)
Overaged condition for dimensional stability and better ductility at elevated service temperature, at some loss of strength versus T6.190260678 HB38 % IACS
Cooled from hot working and artificially aged
Low-temperature ageing (~180–200 °C) to stabilise dimensions and add a little strength without blistering the casting.2003202.585 HB31 % IACS
Solution heat treated and artificially aged
Maximum strength; only practical on vacuum/squeeze/low-pressure castings or gravity permanent-mould parts — conventional die castings blister at solution temperature.260330395 HB37 % IACS

What is ADC3 F-HVDC?

ADC3 F-HVDC is ADC3 supplied in the F-HVDC condition — pick when the casting must be weldable, riveted/self-pierce joined, or later heat treated — vacuum-assisted casting cuts entrapped gas. ADC3 F-HVDC has a yield strength of 160 MPa (23.2 ksi) and a tensile strength of 300 MPa (43.5 ksi) — weaker than 61% of aluminum grades. Elongation at break is 8% and the elastic modulus is 71 GPa (10.3 Msi). ADC3 F-HVDC has a density of 2.64 g/cm³ (0.0954 lb/in³), lighter than 94% of aluminum grades. It melts at 557°C (1,035 °F). F is the default condition FabDigit quotes; F-HVDC is available on request or by drawing note.

Limitations

  • Poor heat conductor — 115 W/m·K (66.4 BTU/hr·ft·°F), worse than 85% of aluminum grades
  • Low electrical conductivity — 29 % IACS, worse than 78% of aluminum grades
  • Hard to polish — 45/100, worse than 76% of aluminum grades

ADC3 F-HVDC properties

Typical room-temperature values for ADC3 F-HVDC; 21 are specific to this condition. Other listed values are ADC3 reference data and may not represent this condition. Bars are the position among aluminum grades.

Physical3

ADC3 F-HVDC has a density of 2.64 g/cm³ (0.0954 lb/in³), lighter than 94% of aluminum grades. It melts at 557°C (1,035 °F).

Density2.64 g/cm³0.1 lb/in³
Melting Point (Solidus)557°C1,035 °F
Liquidus Temperature596°C1,105 °F

Mechanical13

ADC3 F-HVDC has a yield strength of 160 MPa (23.2 ksi) and a tensile strength of 300 MPa (43.5 ksi) — weaker than 61% of aluminum grades. Elongation at break is 8% and the elastic modulus is 71 GPa (10.3 Msi).

Elastic (Young's) Modulus71 GPa10.3 Msi
Shear Modulus26.5 GPa3.8 Msi
Bulk Modulus70 GPa10.2 Msi
Poisson's Ratio0.33
Tensile Strength (Ultimate)300 MPa43.5 ksi
Yield Strength (0.2% offset)160 MPa23.2 ksi
Elongation at Break8%
Compressive Strength165 MPa23.9 ksi
Shear Strength175 MPa25.4 ksi
Fatigue Strength (Endurance Limit)130 MPa18.9 ksi
Fracture Toughness (K_IC)22 MPa·√m20 ksi·√in
Charpy V-Notch Impact (RT)8 J5.9 ft·lbf
Hardness, Brinell72 HB

Thermal6

ADC3 F-HVDC is rated for continuous service to 150°C (302 °F). It conducts heat at 115 W/m·K (66.4 BTU/hr·ft·°F), worse than 85% of aluminum grades. Thermal expansion is 21 µm/m·K (11.7 µin/in·°F).

Thermal Conductivity115 W/m·K66.4 BTU/hr·ft·°F
Specific Heat Capacity963 J/kg·K0.23 BTU/lb·°F
Thermal Expansion (CTE, 20–100 °C)21 µm/m·K11.7 µin/in·°F
Latent Heat of Fusion389 J/g167 BTU/lb
Max Service Temperature (continuous)150°C302 °F
Min Service Temperature-100°C-148 °F

Electrical3

ADC3 F-HVDC conducts electricity at 29 % IACS, worse than 78% of aluminum grades.

Electrical Conductivity29 % IACS
Electrical Resistivity5.9×10⁻⁸ Ω·m2.32 µΩ·in
Magnetic Responsenon-magnetic

Chemical & Environmental3

Corrosion resistance is good (65/100), better than 71% of aluminum grades.

Galvanic Potential (seawater, vs SCE)-0.83 V
Corrosion ResistanceGood65/100
Chemical Resistance SummaryGood in atmospheric, humid and mild marine service thanks to low Cu; attacked by strong alkalis and by strong mineral acids; suitable for contact with most petroleum fuels, oils and refrigerants; avoid mercury and prolonged wet contact with copper or steel fasteners without insulation.

Sustainability4

Producing a kilogram of ADC3 F-HVDC takes about 180 MJ of energy and emits 11.5 kg of CO₂ — less than 91% of aluminum grades. Typical recycled content is 85%.

Embodied Energy (primary production)180 MJ/kg77,386 BTU/lb
Embodied Carbon (primary production)11.5 kg CO₂/kg
Embodied Water1,150 L/kg138 gal/lb
Typical Recycled Content85%

Manufacturability7

ADC3 F-HVDC's machinability is good (60/100, worse than 51% of aluminum grades); weldability good (60/100); formability poor (30/100).

MachinabilityGood60/100
WeldabilityGood60/100
Formability (cold)Poor30/100
CastabilityVery good80/100
Brazeability / SolderabilityPoor25/100
PolishabilityFair45/100
Anodizing Responsefair — hard/clear anodize is not decorative because ~9.5 % Si gives a dark grey mottled film; chromate/chemical conversion coating or powder coat is preferred, and the Cu-free chemistry anodizes more evenly than ADC12.

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

Working with ADC3 F-HVDC

Is ADC3 easy to machine?

Machines freely with sharp PCD or polished-flute carbide tooling at high speed and copious coolant; the 9–10 % Si is abrasive, so PCD is preferred for volume work, and skin porosity can open up on pressure faces.

Can ADC3 be welded?

TIG/MIG possible with 4043 or 4047 filler only on vacuum/low-gas castings; conventional die castings blister and porosity-crack — prefer mechanical joining, FSW or adhesive bonding.

Can ADC3 be formed, bent or molded?

High-pressure die cast at ~660–700 °C melt with fast fill; fluidity is a little lower and hot-tearing/die-soldering tendency higher than ADC12, so generous fillets, controlled Fe and good die lubrication are needed.

What surface finishes work on ADC3?

Chromate/trivalent conversion coating, e-coat or powder coat gives the best appearance; anodizing is dark and mottled because of primary Si, and shot blast plus vibratory polish is used for as-cast cosmetic parts.

ADC3 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
SiJIS H 5302 ADC3 / ASTM A360.09 – 109.5
Mgstrengthening addition0.4 – 0.60.5
Femax; controls die soldering≤ 1.30.9
Cumax; kept low for corrosion resistance≤ 0.60.15
Mn≤ 0.30.15
Zn≤ 0.50.1
Ni≤ 0.50.05
Sn≤ 0.10.02
Albalance—

ADC3 F-HVDC — frequently asked

What is ADC3 F-HVDC used for?

ADC3 F-HVDC is typically used for electronics enclosures, automotive brackets and power tool housings. In short: more ductile than ADC12; copper-free die casting alloy; better corrosion than ADC10.

What is the yield strength of ADC3 F-HVDC?

ADC3 F-HVDC has a typical yield strength of 160 MPa (23.2 ksi) and a tensile strength of 300 MPa (43.5 ksi) — weaker than 61% of aluminum grades. Strength varies by condition: see the 5 listed tempers.

Is ADC3 F-HVDC easy to machine?

Reasonably — machinability is rated good (60/100, worse than 51% of aluminum grades). Machines freely with sharp PCD or polished-flute carbide tooling at high speed and copious coolant; the 9–10 % Si is abrasive, so PCD is preferred for volume work, and skin porosity can open up on pressure faces.

Can ADC3 F-HVDC be welded?

Yes — weldability is rated good (60/100). TIG/MIG possible with 4043 or 4047 filler only on vacuum/low-gas castings; conventional die castings blister and porosity-crack — prefer mechanical joining, FSW or adhesive bonding.

What surface finishes work on ADC3 F-HVDC?

Chromate/trivalent conversion coating, e-coat or powder coat gives the best appearance; anodizing is dark and mottled because of primary Si, and shot blast plus vibratory polish is used for as-cast cosmetic parts.

Can ADC3 F-HVDC be formed, bent or molded?

High-pressure die cast at ~660–700 °C melt with fast fill; fluidity is a little lower and hot-tearing/die-soldering tendency higher than ADC12, so generous fillets, controlled Fe and good die lubrication are needed.

What is the maximum service temperature of ADC3 F-HVDC?

ADC3 F-HVDC is rated for continuous use to about 150°C (302 °F). Strength falls off well before that limit — check the elevated-temperature data for load-bearing parts.

What is the difference between ADC3-F and ADC3-T6?

F is the default condition — standard supply condition for high-pressure die castings; use unless heat treatment or dimensional stabilisation is specified. T6: maximum strength; only practical on vacuum/squeeze/low-pressure castings or gravity permanent-mould parts — conventional die castings blister at solution temperature. Yield strength is 170 MPa in F versus 260 MPa in T6.

Sources

  1. JIS H 5302 — Aluminium alloy die castings — JSA (2006)
  2. ASTM B85/B85M — Aluminum-Alloy Die Castings (A360.0) — ASTM (2018)
  3. ASM Handbook Vol. 2 — Properties and Selection: Nonferrous Alloys — ASM International (1990)
  4. Aluminum Association Teal Sheets — Registration Record of Casting Alloys — The Aluminum Association (2015)
  5. NADCA Product Specification Standards for Die Castings — NADCA (2018)

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.