Analytical space geometry

9000101904

Level: 
B
Find the angle between the \(x\)-axis and the line \(p\). \[ \begin{aligned}p\colon x& = 2 - t, & \\y & = 3t, \\z & = 1;\ t\in \mathbb{R} \\ \end{aligned} \] Round your answer to the nearest minute.
\(71^{\circ }34'\)
\(0^{\circ }\)
\(69^{\circ }17'\)
\(90^{\circ }\)

9000101909

Level: 
B
Given points \(A = [1;0;2]\), \(B = [1;0;0]\) and the plane \(\alpha \), \[ \alpha \colon 2x - 4y = 0, \] find the angle between the line \(AB\) and the plane \(\alpha \). Round your answer to the nearest minute.
\(0^{\circ }\)
\(22^{\circ }48'\)
\(45^{\circ }19'\)
\(90^{\circ }\)

9000101910

Level: 
B
The points \(A = [0;5;0]\), \(B = [5;5;0]\), \(C = [5;0;0]\) and \(D = [0;0;0]\) define the cube \(ABCDEFGH\). Find the angle between the line \(BF\) and the plane \(AFE\). Round your answer to the nearest minute.
\(0^{\circ }\)
\(35^{\circ }16'\)
\(45^{\circ }\)
\(90^{\circ }\)

9000101907

Level: 
B
The general plane \(\alpha \) has the equation \[ \alpha \colon 3z - 4 = 0 \] and the plane \(\beta \) has a normal vector \(\vec{n} = (0;0;1)\). Find the angle between \(\alpha \) and \(\beta \) and round your answer to the nearest degree.
\(0^{\circ }\)
\(30^{\circ }\)
\(45^{\circ }\)
\(90^{\circ }\)

9000101903

Level: 
B
Given points \(A = [-1;0;3]\), \(B = [0;2;0]\), find the angle between the line \(AB\) and the line \(m\). \[ \begin{aligned}m\colon x& = 1 + 2t, & \\y & = -3t, \\z & = 1;\ t\in \mathbb{R} \\ \end{aligned} \] Round your answer to the nearest minute.
\(72^{\circ }45'\)
\(0^{\circ }\)
\(48^{\circ }15'\)
\(90^{\circ }\)

9000101908

Level: 
B
Find the angle between the line \(p\) and the plane \(\alpha \). \[ \alpha \colon x-3z+5 = 0;\qquad \qquad \begin{aligned}[t] p\colon x& = 3, & \\y & = 3t, \\z & = 1 - t;\ t\in \mathbb{R} \\ \end{aligned} \] Round your answer to the nearest minute.
\(17^{\circ }27'\)
\(0^{\circ }\)
\(47^{\circ }33'\)
\(90^{\circ }\)

9000101901

Level: 
B
Find the angle between two lines and round your answer to the nearest minute. \[ \begin{aligned}p\colon x& = 2 - t , & \\y & = 3t , \\z & = 1 ;\ t\in \mathbb{R} \\ \end{aligned}\qquad \qquad \begin{aligned}q\colon x& = 2s, & \\y & = 4s , \\z & = 1 - s;\ s\in \mathbb{R} \\ \end{aligned} \]
\(46^{\circ }22'\)
\(0^{\circ }\)
\(67^{\circ }18'\)
\(90^{\circ }\)