Chapter 2: Q59 E (page 62)
(a) Use a CAS to graph the solution curve of the initial-value
problem in Problemon the interval
(b) Use tables or a CAS to value the value
Chapter 2: Q59 E (page 62)
(a) Use a CAS to graph the solution curve of the initial-value
problem in Problemon the interval
(b) Use tables or a CAS to value the value
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Get started for freeIn problems 23–28 Find an explicit solution to the given initial-value problem.
In Problems, 21–28 find the critical points and phase portrait of the given autonomous first-order differential equation. Classify each critical point as asymptotically stable, unstable, or semi-stable. By hand, sketch typical solution curves in the regions in theplane determined by the graphs of the equilibrium solutions.
Question: Suspension Bridge In (16) of Sectionwe saw that a mathematical model for the shape of a flexible cable strung between two vertical supports is
wheredenotes the portion of the total vertical load between the pointsandshown in Figure 1.3.7. The DE (10) is separable under the following conditions that describe a suspension bridge. Let us assume that the- andaxes are as shown in Figure-that is, the-axis runs along the horizontal roadbed, and the-axis passes through, which is the lowest point on one cable over the span of the bridge, coinciding with the interval . In the case of a suspension bridge, the usual assumption is that the vertical load in (10) is only a uniform roadbed distributed along the horizontal axis. In other words, it is assumed that the weight of all cables is negligible in comparison to the weight of the roadbed and that the weight per unit length of the roadbed (say, pounds per horizontal foot) is a constant. Use this information to set up and solve an appropriate initial-value problem from which the shape (a curve with equation)of each of the two cables in a suspension bridge is determined. Express your solution of the IVP in terms of the sagand span. See Figure 2.2.5.
In Problems 1-20 determine whether the given differential equation is exact. If it is exact, solve it.
Each DE in Problems is homogeneous. In Problems solve the given differential equation by using an appropriate substitution.
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