LOW CARBON STEEL

AISI 1015

AISI 1015 is listed in the LOW CARBON STEEL material family. The reference data below should be checked against the governing product specification, product form and delivery condition before selection or certification.

AISI 1015
MATERIAL INTRODUCTION

AISI 1015

The reference chemistry table for AISI 1015 lists Carbon (C): 0.13–0.18; Manganese (Mn): 0.30–0.60; Silicon (Si): 0.35 Max; Phosphorus (P): 0.040 Max. Confirm exact limits and analysis tolerances against the governing standard and product form.

The mechanical-property table for AISI 1015 lists Tensile Strength: 320 – 500 MPa; Yield Strength: 180 – 320 MPa; Elongation: 25 – 40 %; Hardness: Approx. 90 – 150 HB. These are reference entries; supplied condition, dimensions, test method and governing specification control the requirements, and the figures are not design allowables.

Werkstoff / EN cross-reference for AISI 1015: 1.0401. This comparison does not guarantee interchangeability; confirm chemistry, product form and condition against the governing specification.

View Technical Information →
TECHNICAL INFORMATION

Material Identification

Standard identification and material designation information for AISI 1015.

Material AISI 1015
UNS Number G10150
Werkstoff Number 1.0401
Material Type Low Carbon Steel
MATERIAL PROPERTIES

Chemical Composition

The reference chemistry table lists Carbon (C): 0.13–0.18; Manganese (Mn): 0.30–0.60; Silicon (Si): 0.35 Max; Phosphorus (P): 0.040 Max. Confirm the governing standard, product analysis tolerances and product form before ordering.

Element Symbol Composition
Carbon C 0.13–0.18
Manganese Mn 0.30–0.60
Silicon Si 0.35 Max
Phosphorus P 0.040 Max
Sulfur S 0.050 Max
Iron Fe Balance
PERFORMANCE DATA

Mechanical Properties

The table reports Tensile Strength: 320 – 500 MPa; Yield Strength: 180 – 320 MPa; Elongation: 25 – 40 %; Hardness: Approx. 90 – 150 HB as reference data for AISI 1015. Actual requirements depend on condition, dimensions, test method and specification; these values are not design allowables.

Property Value Unit
Tensile Strength 320 – 500 MPa
Yield Strength 180 – 320 MPa
Elongation 25 – 40 %
Hardness Approx. 90 – 150 HB
MATERIAL DATA

Physical Properties

Density Approx. 7.85 g/cm³
Elastic Modulus Approx. 200 GPa
Thermal Conductivity Approx. 45 – 60 W/m·K
Specific Heat Approx. 486 J/kg·K
Melting Range Approx. 1425 – 1540°C
WHY SELECT THIS MATERIAL

Material Characteristics

AISI 1015 provides a practical balance of strength, ductility and machinability for its grade family. The final performance depends strongly on chemistry, product size and heat treatment.

01

Strength & Hardness

Carbon content and heat treatment can be used to increase strength and surface hardness.

02

Machinability

Machinability varies by sulfur level, carbon level, microstructure and condition.

03

Formability & Weldability

Lower carbon grades generally provide easier forming and welding; preheat and procedure control may be needed as carbon rises.

04

Heat-Treatment Response

Many grades in this range can respond to normalizing, annealing, quenching and tempering according to grade and section size.

AISI 1015 Bolting Products

INDUSTRIAL USE

Typical Applications

AISI 1015 may be selected for shafts, fasteners, machined components, gears, pins, forgings and general engineering parts, with the exact application dependent on grade, size and condition.

01

Fasteners & Bolting

Used for bolts, studs, nuts and threaded parts when the grade and heat-treatment condition meet the required mechanical class.

02

Shafts & Pins

Commonly considered for pins, axles, shafts and other load-bearing machine components.

03

Gears & Forgings

Selected medium-carbon grades can be used for gears, forgings and wear-prone machine parts after suitable treatment.

04

Machined Components

Free-machining grades are used where chip control and production machining are important.

ENGINEERING GUIDE

Engineering Considerations

Material Selection

Select AISI 1015 using the applicable standard, required product form, size, heat treatment and service conditions. Verify chemistry and mechanical certification.

Weldability & Fabrication

Weldability generally decreases as carbon and alloying increase. Use qualified welding procedures, and consider preheat/interpass control where required.

Mechanical Requirements

Do not use the indicative web values as design allowables. Final properties depend on section size, treatment, reduction and supply condition.

COMMON QUESTIONS

Frequently Asked Questions

What is the Werkstoff number for AISI 1015?

The commonly listed Werkstoff / EN cross-reference for AISI 1015 is 1.0401. Treat this as a grade comparison, not a guarantee of interchangeability. Verify chemistry, product form, condition and governing specification against the supplier certificate before substitution.

Is AISI 1015 heat treatable?

Carbon-steel grades in this range can be annealed, normalized and, for suitable grades and section sizes, quenched and tempered. The permitted treatment depends on the grade and product standard.

Is AISI 1015 corrosion resistant?

Carbon steel is not inherently stainless and normally requires suitable coating, paint, plating or environmental control when corrosion protection is required.

Where is AISI 1015 used?

Typical applications include engineered fasteners, shafts, pins, gears, machined components, forgings and general structural or machine parts where the grade is appropriate.

ENGINEERING SUPPORT

Need Help Selecting the Right Material?

Our engineering team can help with AISI 1015 selection based on operating temperature, pressure, load, product form and service conditions.

Contact Engineering