Compute the theoretical shear stress in order to have a slippage of two atomicplanes relative to each other (the shear modulus is G = E=2(1 + ν)).
Question
Compute the theoretical shear stress in order to have a slippage of two atomicplanes relative to each other (the shear modulus is G = E=2(1 + ν)).
Solution
The question seems to be incomplete as it does not specify what the question is. However, I can explain how to compute the theoretical shear stress.
The shear stress (τ) is related to the shear modulus (G) and the shear strain (γ) by the equation:
τ = G * γ
Given that the shear modulus G is given by E/2(1 + ν), where E is the Young's modulus and ν is the Poisson's ratio, you can substitute this into the equation to get:
τ = E/2(1 + ν) * γ
To compute the theoretical shear stress, you would need to know the values of E, ν, and γ. Once you have these values, you can substitute them into the equation to find the shear stress.
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