RHS 150x100/6

Production class: cold formed (EN 10219-2)

Section geometry

RHS shape
Height (h):
150mm
Width (b):
100mm
Wall thickness (t):
6mm
Outer rounding (router):
12mm
Inner rounding (rinner):
6mm

Section properties

Moment of inertia (I):mm⁴
Y-axis:
8.347E6
Z-axis:
4.442E6
Elastic section modulus (Wel):mm³
Y-axis:
1.113E5
Z-axis:
88840
Plastic section modulus (Wpl):mm³
Y-axis:
1.367E5
Z-axis:
1.033E5
Radius of gyration (i):mm
Y-axis:
54.96
Z-axis:
40.09
Plastic shear area (Av):mm²
Y-axis:
1105
Z-axis:
1658

Weight per meter:
21.69kg/m
Area (A):
2763mm²
Surface area per meter:
0.4794m²/m
Torsion constant (It):
9.483E6mm⁴

Profile overview for RHS 150x100/6

The RHS 150x100/6 is a structural steel cross-section utilized in commercial construction, industrial framing, and mechanical engineering. Manufactured as a cold formed section, it complies with EN 10219-2 dimensional standards, ensuring predictability in detailing and fabrication.Access to its exact geometric and statical properties is essential for 3D modeling and structural verification.

Geometry: This rectangular/square hollow section is defined by a depth of 150 mm, a width of 100 mm, and a uniform wall thickness of 6 mm. With a cross-sectional area of 2763.292007 mm² and a linear mass of 21.69184225 kg/m, the RHS 150x100/6 offers a distinct stiffness-to-weight ratio for both column (axial) and beam applications.

Section properties: For design of bending, the major and minor axis properties dictate the member's structural capacity. The strong-axis moment of inertia (Iy) of 8347000 mm⁴ governs major deflection and serviceability limits. To calculate the ultimate bending resistance, engineers may utilize the strong-axis plastic section modulus of 136700 mm³. For lateral stability and column buckling verifications, the weak-axis moment of inertia (Iz) provides 4442000 mm⁴ of lateral stiffness.

Advanced analysis: For complex load cases, the RHS 150x100/6 provides a y-axis shear area (at strong bending axis) of 1105.316803 mm² for web shear verification and a torsion constant of 9483000 mm⁴ for calculating rotational twist under eccentric loading.