We know that M(0)=10. What is M'(0)? (Use the differential equation with r=1 and k=100) Round your answer to the closest whole number.

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Author:Erwin Kreyszig
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Chapter2: Second-order Linear Odes
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We know that M(0)=10. What is M'(0)? (Use the differential equation with r=1 and k=100) Round your answer to the closest whole number.

5. Hopefully your answer to the previous question included the word "slope." A nice way to
visualize solutions to differential equations is with a slope field. For any value of t and M, we
plug into right-hand side of the differential equation to get the slope, dM/dt, and indicate the
slope at that point in the t-M plane by a short line segment as shown in the figure below. In
this plot, r =1 and K = 100, and the horizontal axis is t and vertical is M.
M 120
100
80
60
40
MlO)=10->
0.0
1.0
2.0
3.0
4.0
5.0
6.0
ノ///ニ
20
Transcribed Image Text:5. Hopefully your answer to the previous question included the word "slope." A nice way to visualize solutions to differential equations is with a slope field. For any value of t and M, we plug into right-hand side of the differential equation to get the slope, dM/dt, and indicate the slope at that point in the t-M plane by a short line segment as shown in the figure below. In this plot, r =1 and K = 100, and the horizontal axis is t and vertical is M. M 120 100 80 60 40 MlO)=10-> 0.0 1.0 2.0 3.0 4.0 5.0 6.0 ノ///ニ 20
In this activity we will look at how we can approximate solutions to differential equations without
actually solving them. We will consider a model for a tumor growth known as the Gompertz growth
function. Let M(t) > 0 be the mass of a tumor at timet2 0. The relevant differential equation is
dM
-rM In
K
dt
Transcribed Image Text:In this activity we will look at how we can approximate solutions to differential equations without actually solving them. We will consider a model for a tumor growth known as the Gompertz growth function. Let M(t) > 0 be the mass of a tumor at timet2 0. The relevant differential equation is dM -rM In K dt
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