The cantilever beam illustrated below is subject to an uniform distributed load with magnitude w and...

 

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The cantilever beam illustrated below is subject to an uniform distributed load with magnitude w and a couple moment with magnitude Mo 2 wa². Assume a 1917 mm. The beam cross section has dimensions b = 234 mm, h = 154 mm, t₁ = 24 mm, and t₂ = 24 mm. The beam is made of a material with allowable tensile stress σ = 11 MPa and allowable compressive stress σ = 12 MPa. Mo W Matlab Mathematica a = 1917; % mm b234; % mm h154; % mm t124; % mm t224; % mm sigmaT = 11; % MPa sigmaC 12; % MPa a Python N VN t2 y t₁ b h Find y, i.e., the signed distance from the z-axis to the z-axis, where z is the centroidal axis of the cross section. = number (rtol=0.01, atol=1e-05) mm ? Determine the moment of inertia I2 with respect to the centroidal axis z. Iz number (rtol=0.01, atol=1e-05) Determine the maximum magnitude of the distributed load w. W = number (rtol=0.01, atol=1e-05) ×106 mm 4 N/mm The cantilever beam illustrated below is subject to an uniform distributed load with magnitude w and a couple moment with magnitude Mo 2 wa². Assume a 1917 mm. The beam cross section has dimensions b = 234 mm, h = 154 mm, t₁ = 24 mm, and t₂ = 24 mm. The beam is made of a material with allowable tensile stress σ = 11 MPa and allowable compressive stress σ = 12 MPa. Mo W Matlab Mathematica a = 1917; % mm b234; % mm h154; % mm t124; % mm t224; % mm sigmaT = 11; % MPa sigmaC 12; % MPa a Python N VN t2 y t₁ b h Find y, i.e., the signed distance from the z-axis to the z-axis, where z is the centroidal axis of the cross section. = number (rtol=0.01, atol=1e-05) mm ? Determine the moment of inertia I2 with respect to the centroidal axis z. Iz number (rtol=0.01, atol=1e-05) Determine the maximum magnitude of the distributed load w. W = number (rtol=0.01, atol=1e-05) ×106 mm 4 N/mm