Section I Part A — Full Practice Exam 4
Multiple choice non-calculator section
Questions in this quiz (22)
Evaluate $$\int_0^1 e^{3x}\,dx$$.
- $$\frac{e^3-1}{1}$$
- $$e^3-1$$
- $$\frac{e^3}{3}$$
- $$\frac{e^3-1}{3}$$
If $$f(x)=\tan(e^{\cos x})$$, then $$f'(x)=$$
- $$-e^{\cos x}\sin x\sec^2(e^{\cos x})$$
- $$e^{\cos x}\sin x\sec^2(e^{\cos x})$$
- $$-\sin x\sec(e^{\cos x})\tan(e^{\cos x})$$
- $$e^{\cos x}\sec^2(e^{\cos x})$$
If $$F(x)=\int_1^{x^3} t^2\,dt$$, then $$F'(x)=$$
- $$3x^2(x^3)^2$$
- $$3x^2$$
- $$x^6$$
- $$3x^8$$
If $$f(x)=\tan^2 x+\cos x$$, then $$f'\left(\frac{\pi}{4}\right)=$$
- $$4-\frac{\sqrt2}{2}$$
- $$4-\frac{\sqrt2}{2}$$
- $$1+\frac{\sqrt2}{2}$$
- $$1-\frac{\sqrt2}{2}$$
At which point is the graph of $$f(x)=x^4-4x^3+3x^2+2$$ decreasing and concave down?
- $$(0,2)$$
- $$(1,2)$$
- $$(2,2)$$
- $$(3,2)$$
Which of the following are antiderivatives of $$f(x)=\sin x\cos^2 x$$? I. $$F(x)=-\frac{\cos^3 x}{3}$$ II. $$F(x)=\frac{\sin^2 x}{2}-\frac{\sin^4 x}{4}$$ III. $$F(x)=\frac{1-\cos^3 x}{3}$$
- I only
- II only
- I and III
- I, II, and III
Determine $$\frac{dy}{dx}$$ for the curve defined by $$x^2+y^3=3xy$$.
- $$\frac{2x-3y}{3y^2-3x}$$
- $$\frac{3y-2x}{3y^2-3x}$$
- $$\frac{2x-3y}{3x-3y^2}$$
- $$\frac{3x-2y}{3y^2-3x}$$
Evaluate $$\int_0^{\pi/6}\cos 2x\,dx$$.
- $$\frac12$$
- $$\frac14$$
- $$\frac{\sqrt3}{4}$$
- $$\frac{\sqrt3}{2}$$
Find the average value of $$f(x)=\cos 3x$$ over $$\left[0,\frac{\pi}{3}\right]$$.
- $$0$$
- $$\frac13$$
- $$\frac23$$
- $$\frac{1}{\pi}$$
Evaluate $$\lim_{x\to\infty}\frac{4x^2-5x+1}{2x^2+3x-7}$$.
- $$2$$
- $$\frac12$$
- $$1$$
- $$0$$
Evaluate $$\int_1^e\frac{\ln x}{x}\,dx$$.
- $$\frac12$$
- $$1$$
- $$\frac13$$
- $$2$$
A particle's position is given by $$s(t)=\cos t+t$$. The average velocity over $$[0,\pi]$$ is
- $$1$$
- $$0$$
- $$\frac{\pi-2}{\pi}$$
- $$\frac1\pi$$
If $$f(x)=\begin{cases} e^{2x}, & x<\ln3 \\ 3, & x\ge\ln3 \end{cases}$$ then $$\lim_{x\to\ln3} f(x)=$$
- $$1$$
- $$3$$
- $$\ln3$$
- Limit does not exist
Evaluate $$\lim_{h\to0}\frac{\sin\left(\frac{\pi}{6}+h\right)-\sin\frac{\pi}{6}}{h}$$.
- $$\frac{\sqrt3}{2}$$
- $$\frac12$$
- $$\sqrt3$$
- $$1$$
The graph of $$f(x)=(x-2)^3(x+1)^2$$ has a local minimum at $$x=$$
- $$-1$$
- $$2$$
- $$1$$
- $$\frac15$$
Let $$f$$ and $$g$$ be twice differentiable functions such that $$f'(x)0$$, then at $$x=2$$
- $$g$$ is increasing
- $$g$$ is decreasing
- $$f$$ is concave down
- $$g$$ is concave up
What is the area of the region bounded by the curves $$y=x^2+1$$ and $$y=x$$ from $$x=0$$ to $$x=2$$?
- $$\frac{4}{3}$$
- $$\frac{8}{3}$$
- $$2$$
- $$\frac{10}{3}$$
Compute $$\frac{d}{dx}\left(e^{\cos 2x}\right)$$.
- $$-2\sin2x\,e^{\cos2x}$$
- $$2\cos2x\,e^{\cos2x}$$
- $$-2\cos2x\,e^{\cos2x}$$
- $$2e^{\cos2x}$$
An equation of the line tangent to $$y=\cos x+2\sin x$$ at $$(0,1)$$ is
- $$2x-y=1$$
- $$y=2x+1$$
- $$y=-2x+1$$
- $$x+y=1$$
The function $$f(x)=x^4-6x^3+9x^2+1$$. All of these statements are true EXCEPT
- $$f'(0)=0$$
- $$f'(1)=0$$
- $$x=0$$ is critical point
- $$x=1$$ inflection
The function $$f(x)=e^{\cos x}$$ is decreasing over which interval?
- $$[0,\pi]$$
- $$[\pi/2,3\pi/2]$$
- $$[0,\pi/2]$$
- $$(-\infty,\infty)$$
The graph of $$f(x)=\frac{x}{x^2+1}$$ is concave down over which interval(s)?
- $$(-\infty,0)$$
- $$(0,\infty)$$
- $$(-1,1)$$
- $$(-\infty,-1)\cup(1,\infty)$$
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Frequently asked questions
How many questions are in Section I Part A — Full Practice Exam 4?
This practice set includes 30 questions and takes about 1h. Finish in one sitting when possible, then review incorrect answers before retaking.
What topic does Section I Part A — Full Practice Exam 4 cover?
Section I Part A — Full Practice Exam 4 focuses on Full Practice Exam 4. Questions follow exam-style wording and difficulty so you can practice the skills tested on major Full Practice Exam 4 assessments. These are practice materials, not official exam questions.
How is Section I Part A — Full Practice Exam 4 scored?
Your score is the percentage of correct answers. A typical passing score is 80%. After you finish, review each miss with the available explanations on The School of Mathematics.
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