Chapter 10: Q6P (page 508)
Point masses 1 at (1, 1, -2) and 2 at (1, 1, 1).
Short Answer
Answer:
Inertia tensor is .
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Chapter 10: Q6P (page 508)
Point masses 1 at (1, 1, -2) and 2 at (1, 1, 1).
Answer:
Inertia tensor is .
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Generalize Problem 3 to see that the direct product of any two isotropic tensors (or a direct product contracted) is an isotropic tensor. For example show thatis an isotropic tensor (what is its rank?) andis an isotropic tensor (what is its rank?).
Bipolar.
Show that is a tensor and find its rank (assuming that T and S are tensors of the rank indicated by the indices).
In (10.18), show by raising and lowering indices that . Also, write (10.18) for an orthogonal coordinate system with andwritten in terms of the scale factors.
Show that the fourth expression in (3.1) is equal to . By equations (2.6) and (2.10) , show that , so
Compare this with equation (2.12) to show thatis a Cartesian vector. Hint: Watch the summation indices carefully and if it helps, put back the summation signs or write sums out in detail as in (3.1) until you get used to summation convention.
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