Chapter 6: Q. 23 (page 570)
Use antidifferentiation and/or separation of variables to solve the given differential equations. Your answers will involve unsolved constants.
Short Answer
Ans: The solution of the differential equation is
Chapter 6: Q. 23 (page 570)
Use antidifferentiation and/or separation of variables to solve the given differential equations. Your answers will involve unsolved constants.
Ans: The solution of the differential equation is
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Get started for freeFind the exact value of the arc length of each function f(x) on [a, b] by writing the arc length as a definite integral and then solving that integral.
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Write the volume of the two solids of revolution that follow in terms of definite integrals that represent accumulations of disks and/or washers. Do not compute the integrals.
Suppose an object is heating up according to a model for Newton’s Law of Cooling with temperature satisfying for some constant .
(a) What is the ambient temperature of the environment under this model?
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(c) Use the differential equation to argue that the object’s temperature changes are faster when it is much cooler than the ambient temperature than when it is close to the ambient temperature.
(d) Part (c) is the basis for the oft-misunderstood saying “Coldwater boils faster.” Why?
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