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For the state of stress of pure shear t, the strain energy stored per unit volume in the elastic, homogeneous, isotropic material having elastic constants - Young's modulus, E and Poisson's ratio v will be

Aτ2E(1+ν)\frac{\tau^2}{E}(1+\nu)

Bτ22E(1+ν)\frac{\tau^2}{2E}(1+\nu)

C2τ2E(1+ν)\frac{2\tau^2}{E}(1+\nu)

Dτ22E(2+ν)\frac{\tau^2}{2E}(2+\nu)

Answer:

τ2E(1+ν)\frac{\tau^2}{E}(1+\nu)

Read Explanation:

Given: E = Young's modulus, v = Poisson's ratio; E=2G(1+v)2G=E/(1+v)E= 2G (1+ v) \Rightarrow 2G = E/(1 + v) Strain energy per unit volume =τ22G=τ2E(1+ν) \frac{\tau ^ 2}{2G} = \frac{\tau ^ 2}{E} (1 + \nu)


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