A graph of the acceleration a versus time t for an object moving on a straight line is shown in the accompanying figure. Estimate the accelerations at t = 0 , 1 , 2 , ... , 8 seconds (S) from the graph and use Simpson’s rule to approximate the change in velocity from t = 0 to t = 8 s. Round your answer to the nearest tenth cm/s.
A graph of the acceleration a versus time t for an object moving on a straight line is shown in the accompanying figure. Estimate the accelerations at t = 0 , 1 , 2 , ... , 8 seconds (S) from the graph and use Simpson’s rule to approximate the change in velocity from t = 0 to t = 8 s. Round your answer to the nearest tenth cm/s.
A graph of the acceleration a versus time
t
for an object moving on a straight line is shown in the accompanying figure. Estimate the accelerations at
t
=
0
,
1
,
2
,
...
,
8 seconds (S) from the graph and use Simpson’s rule to approximate the change in velocity from
t
=
0
to
t
=
8
s. Round your answer to the nearest tenth cm/s.
4. Use method of separation of variable to solve the following wave equation
მłu
J²u
subject to
u(0,t) =0, for t> 0,
u(л,t) = 0, for t> 0,
=
t> 0,
at²
ax²'
u(x, 0) = 0,
0.01 x,
ut(x, 0) =
Π
0.01 (π-x),
0
Solve the following heat equation by method of separation variables:
ди
=
at
subject to
u(0,t) =0, for
-16024
ძx2 •
t>0, 0 0,
ux (4,t) = 0, for
t> 0,
u(x, 0) =
(x-3,
\-1,
0 < x ≤2
2≤ x ≤ 4.
ex
5.
important aspects.
Graph f(x)=lnx. Be sure to make your graph big enough to easily read (use the space given.) Label all
6
33
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