MILD STEEL
mild steel
MANUFACTURING PROCESSES OFFERED
LASER CUTTING
WATERJET CUTTING
TAPPING
COUNTERSINKING
BENDING
Countersink Specs | Values3 |
---|---|
Min countersink part size | 1" x 4" |
Max countersink part size | 14" x 46" |
Countersink Min Minor | 0.130" |
Countersink Max Major | 0.472" |
Countersink Min Hole Center to Material Edge | 0.361" |
Properties | Value |
---|---|
Advertised Thickness | 0.125" |
Gauge | N/A |
Thickness tolerance positive | 0.007" |
Thickness tolerance negative | 0.006" |
Top/Bottom Finish | Textured top side, smooth bottom |
Sourced from | Canada |
General Details
Properties 2 | Value2 |
---|---|
Cutting process | CNC Router |
Cut tolerance +/- | 0.005" |
Flatness tolerance before cutting | +/- 0.030" per foot |
Min part size | 1" x 2" |
Max part size | 44" x 30" |
Min hole size | 0.125" |
Min bridge size | 0.125" |
Min hole to edge distance | 0.38" |
Tab and slot Tolerance | 0.015" |


Countersink Specs | Values3 |
---|---|
Min countersink part size | 1" x 4" |
Max countersink part size | 14" x 46" |
Countersink Min Minor | 0.130" |
Countersink Max Major | 0.472" |
Countersink Min Hole Center to Material Edge | 0.361" |
Countersink Specifications
Tapping Specs | Value4 |
---|---|
Largest Tap | M10 x 1.5 |
Smallest Tap | M4 x 0.7 |
Min Flat Part Size Tapping | 0.949" x 1.5" |
Max Flat Part Size Tapping | 36" x 46" |
Tapping Min Hole to Edge | 0.063" |
Tapping Min Hole Center to Material Edge | Tap hole size/2 +0.063" |
ABS Properties | Value5 |
---|---|
Material Composition | Acrylonitrile Butadiene Styrene
|
Density | 65.664 lb/ft^3 |
Heat treatment process | N/A |
ASTM | D4673 |
Tensile Strength (Ultimate) | 4.5 ksi |
Tensile Strength (Yield) | 3.5 ksi |
Shear Strength | 2 ksi |
Shear Modulus | 75 ksi |
Fatigue Strength | 2 ksi |
Izod Impact Strength | 6.3 ft-lbs/in |
Coefficient of Friction | 0.19 – 0.21 |
Rockwell | R 90 - R100 |
Elongation at Break | 25% |
Elastic Modulus | 340 ksi |
Poisson’s Ratio | .35 |
Thermal Conductivity | 0.22 BTU/h-ft °F |
Vicat Softening Temp | 150 °F |
Melting Point | 390 °F |
Magnetic | No |
Does it Rust | No |
ABS Properties
Tapping Specifications
CNC Router Cutting Specifications
CHARACTERISTICS
A low carbon steel sheet material with high tensile and impact strength
Great strength to weight ratio
Magnetic
Good formability and durability
Good weldability
Great conductivity
DISADVANTAGES
Low corrosion resistance
Lower resilience
Less heat resistant
PRODUCT AND INDUSTRY APPLICATIONS
construction, home goods
Mild Steel Laser Cutting and Engraving, CNC Bending Custom Parts Canada
Mild steel, also known as carbon steel, is a type of steel that contains a low percentage of carbon, typically less than 0.3%. This gives mild steel a combination of strength, ductility, and ease of fabrication, making it one of the most commonly used materials in construction and manufacturing. The production of mild steel involves the refining of iron ore in a blast furnace, where impurities are removed, and carbon is added to create the desired material properties. Mild steel is then processed through various methods such as rolling, forging, and welding to form sheets, bars, rods, and other shapes used in applications ranging from structural steel for buildings and bridges to automotive parts, machinery, and pipelines.
The advantages of mild steel include its low cost, ease of fabrication, and versatility, which make it ideal for a wide range of applications, including construction, automotive manufacturing, and shipbuilding. Its malleability and ability to be easily welded or shaped also contribute to its widespread use in both commercial and industrial sectors. Additionally, mild steel has relatively good tensile strength and is highly recyclable, making it an environmentally friendly choice. However, mild steel also has some disadvantages: it is more prone to corrosion and rust than higher-alloy steels, especially when exposed to moisture or harsh chemicals, requiring protective coatings or regular maintenance. Moreover, while it is easy to work with, it may not be suitable for high-strength or high-temperature applications where stronger or more heat-resistant alloys are needed. Despite these limitations, mild steel remains a widely used and cost-effective material due to its accessibility and versatility in manufacturing.