ū = the vector starting at the point (2,4) and ending at the point (5, 11), ✓ = the vector starting at the point (2,4) and ending at the point (-4, 5). For this part include a graph of the points, vectors, and parallelogram.

Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
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Part D please

Area Theorem:
If A is a 2 x 2 matrix, the area of the parallelogram determined by the columns of A is the
absolute value of the determinant of A, Area = |det (A)]. The same formula calculates the
volume of the parallelepiped determined by the columns of A, if A is a 3 x 3 matrix.
Example: The vectors u = (2, 1), ✓ = (3,0) define the parallelogram
-1
0
u
A
V
=
2
=[²3], det A
=
3
-3, [det(A)| = |−3| = 3
5
Exercise Set 1:
Write the matrix A from the given vectors. Calculate the area (or volume) of the parallelogram
(parallelepiped) defined by them.
(a) u = (1,4), v = (5,0)
(b) u = (3,2), v = (6,−4)
(c) ū = (2,5,0), v = (3,−2,−1), w = (−1,4, 3)
(d) u = the vector starting at the point (2, 4) and ending at the point (5, 11),
✓ = the vector starting at the point (2, 4) and ending at the point (-4, 5).
For this part include a graph of the points, vectors, and parallelogram.
Note that the above Area Theorem can be generalized to what is called the Shoelace Theorem.
Transcribed Image Text:Area Theorem: If A is a 2 x 2 matrix, the area of the parallelogram determined by the columns of A is the absolute value of the determinant of A, Area = |det (A)]. The same formula calculates the volume of the parallelepiped determined by the columns of A, if A is a 3 x 3 matrix. Example: The vectors u = (2, 1), ✓ = (3,0) define the parallelogram -1 0 u A V = 2 =[²3], det A = 3 -3, [det(A)| = |−3| = 3 5 Exercise Set 1: Write the matrix A from the given vectors. Calculate the area (or volume) of the parallelogram (parallelepiped) defined by them. (a) u = (1,4), v = (5,0) (b) u = (3,2), v = (6,−4) (c) ū = (2,5,0), v = (3,−2,−1), w = (−1,4, 3) (d) u = the vector starting at the point (2, 4) and ending at the point (5, 11), ✓ = the vector starting at the point (2, 4) and ending at the point (-4, 5). For this part include a graph of the points, vectors, and parallelogram. Note that the above Area Theorem can be generalized to what is called the Shoelace Theorem.
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