Chapter 6: Problem 16
In Exercises \(11-16,\) solve the initial value problem. Confirm your answer by checking that it conforms to the slope field of the differential equation. $$\frac{d y}{d x}=2 x \sqrt{x+2}\( and \)y=0\( when \)x=-1$$
Chapter 6: Problem 16
In Exercises \(11-16,\) solve the initial value problem. Confirm your answer by checking that it conforms to the slope field of the differential equation. $$\frac{d y}{d x}=2 x \sqrt{x+2}\( and \)y=0\( when \)x=-1$$
All the tools & learning materials you need for study success - in one app.
Get started for freeLimited Growth Equation Another differential equation that models limited growth of a population \(P\) in an environment with carrying capacity \(M\) is \(d P / d t=k(M-P)\) (where \(k>0\) and \(M>0\) ). (a) Show that \(P=M-A e^{-k t},\) where \(A\) is a constant determined by an appropriate initial condition. (b) What is lim \(P(t) ? ~ M\) (c) For what time \(t \geqslant 0\) is the population growing the fastest? (d) Writing to Learn How does the growth curve in this model differ from the growth curve in the logistic model? See answ
Multiple Choice If \(\int_{3}^{5} f(x-a) d x=7\) where \(a\) is a constant then \(\int_{3-a}^{5-a} f(x) d x=\) (A) \(7+a\) (B) 7 (C) \(7-a\) (D) \(a-7 \quad(\mathbf{E})-7\)
Multiple Choice If \(\int x^{2} \cos x d x=h(x)-\int 2 x \sin x d x,\) then \(h(x)=\) (A) \(2 \sin x+2 x \cos x+C\) (B) \(x^{2} \sin x+C\) (C) \(2 x \cos x-x^{2} \sin x+C\) (D) \(4 \cos x-2 x \sin x+C\) (E) \(\left(2-x^{2}\right) \cos x-4 \sin x+C\)
In Exercises \(25-46,\) use substitution to evaluate the integral. $$\int \tan ^{7} \frac{x}{2} \sec ^{2} \frac{x}{2} d x$$
In Exercises \(47-52,\) use the given trigonometric identity to set up a \(u\) -substitution and then evaluate the indefinite integral. $$\int\left(\cos ^{4} x-\sin ^{4} x\right) d x, \quad \cos 2 x=\cos ^{2} x-\sin ^{2} x$$
What do you think about this solution?
We value your feedback to improve our textbook solutions.