Biomedical Engineering Reference
In-Depth Information
38. Simulate the model in Eq. (8.124) given that
q S ð
0
Þ¼
30,
q E ð
0
Þ¼
0
:
1,
q M ¼
10,
K 1 ¼
10,
K 1 ¼
0
:
1,
K 2
¼
3,
K
¼
3,
K 3
¼
0
:
1,
K
¼
2,
K 4
¼
0
:
1,
K
¼
5,
K
¼
1, and
K 6
¼
5
:
All other initial
3
4
5
6
quantities are zero.
39. Simulate the model in Eq. (8.124) given that
q S ð
0
Þ¼
20,
q E ð
0
Þ¼
0
:
01,
q M ¼
20,
K 1 ¼
5,
K 1 ¼
1,
K 2 ¼
7,
K 3 ¼
3,
K 3 ¼
10,
K 4 ¼
0
:
2,
K 4 ¼
0
:
001,
K 5 ¼
1,
K 6 ¼
6, and
K 6 ¼
0
:
5
:
All other
initial quantities are zero.
40. Simulate the model in Eq. (8.124) given that
q S ð
0
Þ¼
10,
q E ð
0
Þ¼
0
:
1,
q M ¼
40,
K 1 ¼
7,
K 1 ¼
1,
K 2 ¼
5,
K 3 ¼
1,
K 3 ¼
5,
K 4 ¼
2,
K 4 ¼
0
:
1,
K 5 ¼
2,
K 6 ¼
2, and
K 6 ¼
5
:
All other initial
quantities are zero.
41. Simulate the model in Eq. (8.133) given that
q S ð
0
Þ¼
50,
q E ð
0
Þ¼
7,
K 1 ¼
0
:
001,
K 1 ¼
0
:
00001,
K 2 ¼
0
:
1,
K 3 ¼
0
:
05,
K 3 ¼
0
:
00002, and
K 4 ¼
0
:
3
:
All other initial quantities are zero.
42. Simulate the model in Eq. (8.133) given that
q S ð
0
Þ¼
50,
q E ð
0
Þ¼
7,
K 1 ¼
1,
K 1 ¼
0
:
2,
K 2 ¼
0
:
1,
K 3 ¼
0
:
01,
K 3 ¼
0
:
4, and
K 4 ¼
0
:
02
:
All other initial quantities are zero.
Suggested Readings
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and MATLAB, second ed., Prentice Hall, Upper Saddle River, NJ, 2008.
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