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Stainless Steel 1.4567 +LC (Light cold drawn)

Supply condition

EN 1.4567

Choose when straightness, surface and tight diameter tolerance matter but full cold-heading ductility must be retained.

Standard cost $$

Values for the +LC condition

Other 1.4567 tempers and conditions

1.4567 is listed in 5 conditions; see the grade overview at 1.4567.

Compare all 5 conditionsHide
Condition · open for datasheetBest forYield MPaTensile MPaElong. %HardnessConductivity
+ATDefault
Solution annealed
Default supply condition for cold-heading wire and deep-drawing stock: softest, most ductile, fully austenitic and non-magnetic.21052055150 HB—
+LCThis page
Light cold drawn
Choose when straightness, surface and tight diameter tolerance matter but full cold-heading ductility must be retained.320570409 HRC2.4 % IACS
Cold drawn to tensile class 700 MPa
Cold-drawn strength class for parts that are only lightly upset or are machined from wire/bar and need higher proof strength than annealed.45067025200 HB—
Cold-formed fastener property class
Finished screws/bolts cold-headed from 1.4567 wire and certified to ISO 3506 class A2-70 (700 MPa min UTS).5007601821 HRC2.4 % IACS
Cold drawn to tensile class 850 MPa
Heavier draw for springy clips, shafts and screws that will not be upset; ductility is largely consumed.6508201424 HRC—

What is 1.4567 +LC?

1.4567 +LC is 1.4567 supplied in the +LC condition — choose when straightness, surface and tight diameter tolerance matter but full cold-heading ductility must be retained. 1.4567 +LC has a yield strength of 320 MPa (46.4 ksi) and a tensile strength of 570 MPa (82.7 ksi) — weaker than 60% of stainless steel grades. Elongation at break is 40% and the elastic modulus is 193 GPa (28 Msi). 1.4567 +LC has a density of 7.9 g/cm³ (0.285 lb/in³), heavier than 68% of stainless steel grades. It melts at 1,400°C (2,552 °F). +AT is the default condition FabDigit quotes; +LC is available on request or by drawing note.

Advantages

  • Forms and bends easily — 88/100, better than 97% of stainless steel grades
  • Polishes to a fine finish — 80/100, better than 89% of stainless steel grades

Limitations

  • Limited service temperature — 400°C (752 °F), worse than 78% of stainless steel grades

1.4567 +LC properties

Typical room-temperature values for 1.4567 +LC; 24 are specific to this condition. Other listed values are 1.4567 reference data and may not represent this condition. Bars are the position among stainless steel grades.

Physical3

1.4567 +LC has a density of 7.9 g/cm³ (0.285 lb/in³), heavier than 68% of stainless steel grades. It melts at 1,400°C (2,552 °F).

Density7.9 g/cm³0.29 lb/in³
Melting Point (Solidus)1,400°C2,552 °F
Liquidus Temperature1,450°C2,642 °F

Mechanical16

1.4567 +LC has a yield strength of 320 MPa (46.4 ksi) and a tensile strength of 570 MPa (82.7 ksi) — weaker than 60% of stainless steel grades. Elongation at break is 40% and the elastic modulus is 193 GPa (28 Msi).

Elastic (Young's) Modulus193 GPa28 Msi
Shear Modulus77 GPa11.2 Msi
Bulk Modulus160 GPa23.2 Msi
Poisson's Ratio0.29
Tensile Strength (Ultimate)570 MPa82.7 ksi
Yield Strength (0.2% offset)320 MPa46.4 ksi
Elongation at Break40%
Reduction in Area68%
Compressive Strength330 MPa47.9 ksi
Shear Strength405 MPa58.7 ksi
Fatigue Strength (Endurance Limit)265 MPa38.4 ksi
Fracture Toughness (K_IC)165 MPa·√m150 ksi·√in
Charpy V-Notch Impact (RT)140 J103 ft·lbf
Hardness, Brinell175 HB
Hardness, Rockwell B88 HRB
Hardness, Vickers185 HV

Thermal6

1.4567 +LC is rated for continuous service to 400°C (752 °F). It conducts heat at 16 W/m·K (9.24 BTU/hr·ft·°F), better than 58% of stainless steel grades. Thermal expansion is 16.5 µm/m·K (9.17 µin/in·°F).

Thermal Conductivity16 W/m·K9.2 BTU/hr·ft·°F
Specific Heat Capacity500 J/kg·K0.12 BTU/lb·°F
Thermal Expansion (CTE, 20–100 °C)16.5 µm/m·K9.2 µin/in·°F
Latent Heat of Fusion270 J/g116 BTU/lb
Max Service Temperature (continuous)400°C752 °F
Min Service Temperature-196°C-321 °F

Electrical3

1.4567 +LC conducts electricity at 2.4 % IACS, better than 67% of stainless steel grades.

Electrical Conductivity2.4 % IACS
Electrical Resistivity7.4×10⁻⁷ Ω·m29.1 µΩ·in
Magnetic Responsenon-magnetic

Chemical & Environmental3

Corrosion resistance is good (56/100), worse than 66% of stainless steel grades.

Galvanic Potential (seawater, vs SCE)-0.08 V
Corrosion ResistanceGood56/100
Chemical Resistance SummaryComparable to 304: good in atmospheric, potable water, food and mild organic acids; attacked by halides (pitting/crevice in chlorides), hot reducing acids and by ammonia/sulphide media that can leach the copper phase.

Sustainability4

Producing a kilogram of 1.4567 +LC takes about 53 MJ of energy and emits 4.7 kg of CO₂ — less than 67% of stainless steel grades. Typical recycled content is 60%.

Embodied Energy (primary production)53 MJ/kg22,786 BTU/lb
Embodied Carbon (primary production)4.7 kg CO₂/kg
Embodied Water180 L/kg21.6 gal/lb
Typical Recycled Content60%

Manufacturability8

1.4567 +LC's machinability is fair (42/100, better than 79% of stainless steel grades); weldability good (66/100); formability excellent (88/100).

MachinabilityFair42/100
Machinability Rating (AISI 1212 = 100 %)50%
WeldabilityGood66/100
Formability (cold)Excellent88/100
CastabilityFair40/100
Brazeability / SolderabilityVery good70/100
PolishabilityVery good80/100
Anodizing Responsen/a — stainless steel is not anodised; use passivation (ASTM A967) or electropolishing

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

Working with 1.4567 +LC

Is 1.4567 easy to machine?

Gummy and work-hardening like 304 (≈45 % of 1212): use sharp positive-rake carbide, heavy positive feed, rigid setup and flood coolant; avoid dwelling.

Can 1.4567 be welded?

Low carbon means no post-weld anneal needed for thin sections; GTAW/GMAW/resistance welding with 308L/347 filler, keep heat input low because 3–4 % Cu increases hot-cracking sensitivity.

Can 1.4567 be formed, bent or molded?

Best-in-class cold heading and multi-station upsetting: low work-hardening rate allows severe upset ratios and deep drawing with minimal interstage annealing; keep tools well lubricated.

What surface finishes work on 1.4567?

Passivate per ASTM A967 or electropolish after forming; takes a good bright polish and is readily plated (Ni/Zn-Ni) or PVD coated; not anodisable.

1.4567 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
CEN 10088-3; UNS S30430 allows 0.08 max≤ 0.040.02
Si≤ 10.5
Mn≤ 21
P≤ 0.05—
SEN often restricts to 0.015 for cold heading≤ 0.03—
Cr17 – 1918
NiUNS S30430: 8.0–10.08.5 – 10.59.3
Curaises austenite stability, lowers work hardening3 – 43.4
N≤ 0.110.04
Febalance—

1.4567 +LC — frequently asked

What is 1.4567 +LC used for?

1.4567 +LC is typically used for cold-headed fasteners, wire forming and precision cold forming parts. In short: highest-formability austenitic; 3–4 % copper cold-heading grade; no molybdenum, 304-level corrosion.

What is the yield strength of 1.4567 +LC?

1.4567 +LC has a typical yield strength of 320 MPa (46.4 ksi) and a tensile strength of 570 MPa (82.7 ksi) — weaker than 60% of stainless steel grades. Strength varies by condition: see the 5 listed tempers.

Is 1.4567 +LC easy to machine?

Not especially — machinability is rated fair (42/100, better than 79% of stainless steel grades). Gummy and work-hardening like 304 (≈45 % of 1212): use sharp positive-rake carbide, heavy positive feed, rigid setup and flood coolant; avoid dwelling.

Can 1.4567 +LC be welded?

Yes — weldability is rated good (66/100). Low carbon means no post-weld anneal needed for thin sections; GTAW/GMAW/resistance welding with 308L/347 filler, keep heat input low because 3–4 % Cu increases hot-cracking sensitivity.

What surface finishes work on 1.4567 +LC?

Passivate per ASTM A967 or electropolish after forming; takes a good bright polish and is readily plated (Ni/Zn-Ni) or PVD coated; not anodisable.

Can 1.4567 +LC be formed, bent or molded?

Best-in-class cold heading and multi-station upsetting: low work-hardening rate allows severe upset ratios and deep drawing with minimal interstage annealing; keep tools well lubricated.

What is the maximum service temperature of 1.4567 +LC?

1.4567 +LC is rated for continuous use to about 400°C (752 °F). Strength falls off well before that limit — check the elevated-temperature data for load-bearing parts.

What is the difference between 1.4567 +AT and 1.4567 A2-70?

+AT is the default condition — default supply condition for cold-heading wire and deep-drawing stock: softest, most ductile, fully austenitic and non-magnetic. A2-70: finished screws/bolts cold-headed from 1.4567 wire and certified to ISO 3506 class A2-70 (700 MPa min UTS). Yield strength is 210 MPa in +AT versus 500 MPa in A2-70.

Sources

  1. EN 10088-3 — Stainless steels, semi-finished products, bars, rods — CEN (2014)
  2. EN 10263-5 — Steel rod, bars and wire for cold heading: stainless steels — CEN (2017)
  3. ASTM A493 — Stainless Steel Wire and Wire Rod for Cold Heading and Cold Forging — ASTM (2022)
  4. ISO 3506-1 — Fasteners, mechanical properties of corrosion-resistant stainless steel fasteners — ISO (2020)
  5. ASM Handbook Vol.1 — Properties and Selection: Irons, Steels and High-Performance Alloys — ASM International (1990)
  6. ASM Handbook Vol.13B — Corrosion: Materials — ASM International (2005)
  7. Cold-heading stainless wire datasheets for 302HQ / XM-7 / 1.4567 — Various wire producers (2023)

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.