One of the parameters of interest would be the maximum allowable bending moment of the aluminum pipe through a radial force on the pipe supported on two ends.
Axial bending load geometry parameter set up across Pipe |
Cross Section of Pipe showing two areas of integration against stress distribution |
$ M = 4 \sigma_y \frac{E}{\sigma_y R} \int_ 0 ^ \frac{ \sigma_y R }{E} \!
y ^2 ( \sqrt( r_0 ^2 - y^2 ) - \sqrt(r_i ^2 - y^2) \,
\mathrm{d}y + \int_ \frac{ \sigma_y * R }{E}) ^ ( r_i ) \! $
$ y * \sqrt( (r_0)^2 - y^2 ) - \sqrt( (r_i)^2 - y^2 ) \mathrm{d}y$ + $ \int_ {r_i } ^ {r_0 }\! y * \sqrt{( (r_0) ^2) - (y^2 )} \mathrm{d}y $
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