Chapter 14: Problem 3
On a diagram show the arbitrary vectors \(p\) and q. Then show the following: (a) \(p+q\) (d) \(4 q\) (e) \(-2 q\) (c) \(q-p\).
Chapter 14: Problem 3
On a diagram show the arbitrary vectors \(p\) and q. Then show the following: (a) \(p+q\) (d) \(4 q\) (e) \(-2 q\) (c) \(q-p\).
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Get started for freeFind the projection of the vector \(6 \boldsymbol{i}+\boldsymbol{j}+5 \boldsymbol{k}\) onto the vector \(\boldsymbol{i}-\boldsymbol{j}+2 \boldsymbol{k}\).
Find the volume of the parallelepiped whose edges are represented by the vectors \(12 i+j+k, 2 i\) and \(-2 \boldsymbol{j}+\boldsymbol{k}\)
A force of 23 newtons acts at an angle of \(20^{\circ}\) below the horizontal. Resolve this force into two components, one vertical and one, horizontal.
Find the angle between the vectors \(12 \boldsymbol{i}-\boldsymbol{j}\), and \(2 \boldsymbol{i}+\boldsymbol{j}+\boldsymbol{k}\).
If the triple scalar product \((\boldsymbol{a} \times \boldsymbol{b}) \cdot \boldsymbol{c}\) is equal to zero, then (i) \(a=0\), or \(b=0\), or \(c=0\) or (ii) two of the vectors are parallel, or (iii) the three vectors lie in the same plane (they are said to be coplanar). Show that the vectors $$ 2 \boldsymbol{i}-\boldsymbol{j}+\boldsymbol{k}, 3 \boldsymbol{i}-4 \boldsymbol{j}+5 \boldsymbol{k}, \boldsymbol{i}+2 \boldsymbol{j}-3 \boldsymbol{k} $$ are coplanar.
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