Chapter 10: Q6RE (page 611)
For any vectors \({\rm{u}}\)and\({\rm{v}}\)in\({{\rm{V}}_{\rm{3}}}{\rm{,u \times v = v \times u}}\).
Short Answer
The answer for the given statement is False.
Chapter 10: Q6RE (page 611)
For any vectors \({\rm{u}}\)and\({\rm{v}}\)in\({{\rm{V}}_{\rm{3}}}{\rm{,u \times v = v \times u}}\).
The answer for the given statement is False.
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To find: A nonzero vector orthogonal to the plane through the points \({\bf{P}}\), \({\bf{Q}}\) and \(R\).
(b) To determine
To find: The area of triangle \({\bf{PQ}}R\).
(a) Determine the vector \({{\rm{k}}_i}\) is perpendicular to \({{\rm{v}}_j}\) except at \(i = j\).
(b) Determine the dot product \({{\rm{k}}_i} \cdot {{\rm{v}}_i} = 1\).
(c) Determine the condition \({{\rm{k}}_1} \cdot \left( {{{\rm{k}}_2} \times {{\rm{k}}_3}} \right) = \frac{1}{{{{\rm{v}}_1} \cdot \left( {{{\rm{v}}_2} \times {{\rm{v}}_3}} \right)}}\).
Determine the dot product of the vector\(a\)and\(b\)and verify\(a \times b\) is orthogonal on both\(a\)and\(b.\)
To find: The volume of the parallelepiped determined by the vectors a, b and c.
(a) Find the parametric equations for the line through the point \((2,4,6)\) and perpendicular to the plane
(b) Find the point at which the line (that passes through the point \((2,4,6)\) and perpendicular to the plane \((x - y + 3z = 7)\) intersects the coordinate planes.
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