<Tr> <Td> Rubber </Td> <Td> 0.0006 </Td> </Tr> <P> The shear modulus is one of several quantities for measuring the stiffness of materials . All of them arise in the generalized Hooke's law: </P> <Ul> <Li> Young's modulus E describes the material's strain response to uniaxial stress in the direction of this stress (like pulling on the ends of a wire or putting a weight on top of a column, with the wire getting longer and the column losing height), </Li> <Li> the Poisson's ratio ν describes the response in the directions orthogonal to this uniaxial stress (the wire getting thinner and the column thicker), </Li> <Li> the bulk modulus K describes the material's response to (uniform) hydrostatic pressure (like the pressure at the bottom of the ocean or a deep swimming pool), </Li> <Li> the shear modulus G describes the material's response to shear stress (like cutting it with dull scissors). </Li> <Li> These moduli are not independent, and for isotropic materials they are connected via the equations 2 G (1 + ν) = E = 3 K (1 − 2 ν) (\ displaystyle 2G (1 + \ nu) = E = 3K (1 - 2 \ nu)). </Li> </Ul> <Li> Young's modulus E describes the material's strain response to uniaxial stress in the direction of this stress (like pulling on the ends of a wire or putting a weight on top of a column, with the wire getting longer and the column losing height), </Li>

What is the difference between young's modulus and shear modulus
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