Problems 35-40 refer to the matrices in Problems 29-34. Use the limiting matrix P found for each transition matrix P in Problems 29-34 to determine the long-run behavior of the successive state matrices for the indicated initial-state matrices. For matrix P from Problem 34 with A S 0 = 0 0 0 1 B S 0 = 0 0 1 0 C S 0 = 0 0 .4 .6 D S 0 = .1 .2 .3 .4
Problems 35-40 refer to the matrices in Problems 29-34. Use the limiting matrix P found for each transition matrix P in Problems 29-34 to determine the long-run behavior of the successive state matrices for the indicated initial-state matrices. For matrix P from Problem 34 with A S 0 = 0 0 0 1 B S 0 = 0 0 1 0 C S 0 = 0 0 .4 .6 D S 0 = .1 .2 .3 .4
Solution Summary: The author calculates the long-run behavior of the successive state matrices if the limiting matrix is l
Problems 35-40 refer to the matrices in Problems 29-34. Use the limiting matrix
P
found for each transition matrix
P
in Problems 29-34 to determine the long-run behavior of the successive state matrices for the indicated initial-state matrices.
For matrix
P
from Problem 34 with
A
S
0
=
0
0
0
1
B
S
0
=
0
0
1
0
C
S
0
=
0
0
.4
.6
D
S
0
=
.1
.2
.3
.4
(4) (8 points)
(a) (2 points) Write down a normal vector n for the plane P given by the equation
x+2y+z+4=0.
(b) (4 points) Find two vectors v, w in the plane P that are not parallel.
(c) (2 points) Using your answers to part (b), write down a parametrization r: R² —
R3 of the plane P.
(2) (8 points) Determine normal vectors for the planes given by the equations x-y+2z = 3
and 2x + z = 3. Then determine a parametrization of the intersection line of the two
planes.
(3) (6 points)
(a) (4 points) Find all vectors u in the yz-plane that have magnitude [u
also are at a 45° angle with the vector j = (0, 1,0).
= 1 and
(b) (2 points) Using the vector u from part (a) that is counterclockwise to j, find an
equation of the plane through (0,0,0) that has u as its normal.
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