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MATH 1210 Final Exam Review A Survey Of Calculus 1 2025-2026 Questions With Correct Soluti, Exams of Advanced Calculus

MATH 1210 Final Exam Review A Survey Of Calculus 1 2025-2026 Questions With Correct Solutions 100% Accurate

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MATH 1210 Final Exam Review A
Survey Of Calculus 1 2025-2026
Questions With Correct Solutions 100%
Accurate
Fundamental Theory of Calculus (FTC)
if f is continuous on [a,b], then ∫f(x)dx (on [a,b]) is F(b)-F(a), where F is any anti-derivative of f.
First Derivative Test (FDT)
(1) Determine critical #'s of f by setting f'(x)=0
(2) Determine sign of f'(x) on both sides of each critical value
If f'(x) goes from (+) to (-) > relative max
If f'(x) goes from (-) to (+) > relative min
Second Derivative Test (SDT)
(1) Compute f'(x) and f"(x)
(2) Find critical #'s of f at which f'(x)=0
(3) Compute f"(x) for each such critical number
If f"(c) is (+) > relative min
If f"(c) is (-) > relative max
If f"(c) is 0 > inconclusive (use FDT)
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MATH 1210 Final Exam Review A

Survey Of Calculus 1 2025- 2026

Questions With Correct Solutions 100%

Accurate

Fundamental Theory of Calculus (FTC)

if f is continuous on [a,b], then ∫f(x)dx (on [a,b]) is F(b)-F(a), where F is any anti-derivative of f.

First Derivative Test (FDT)

(1) Determine critical #'s of f by setting f'(x)=

(2) Determine sign of f'(x) on both sides of each critical value

If f'(x) goes from (+) to (-) > relative max

If f'(x) goes from (-) to (+) > relative min

Second Derivative Test (SDT)

(1) Compute f'(x) and f"(x)

(2) Find critical #'s of f at which f'(x)=

(3) Compute f"(x) for each such critical number

If f"(c) is (+) > relative min

If f"(c) is (-) > relative max

If f"(c) is 0 > inconclusive (use FDT)

Definite Integral Steps

(1) Find antiderivative of f

(2) Plug in endpoints of range so that F(b)-F(a)

Who were the two responsible for "inventing" calculus?

Newton & Leibniz

Newton Fun Fact

Leibniz Fun Fact

Indefinite Integral Steps

(1) choose 'u' and 'du'

(2) rewrite integral to include 'du'

(3) write integral in terms of 'u'

(4) find antiderivative

(5) substitute back

y=bⁿ

always goes through (0,1)

continuous everywhere

Extreme Value Theorem (EVT)

a continuous function on a closed interval [a, b] has an absolute minimum and maximum on that interval.

Related Rates Steps

(1) Assign variable to each quantity. Draw diagram if needed

(2) Write given values and their rates of change w/ respect to t.

(3) Find eq'n giving relationship btwn variables

(4) Implicitly differentiate eq'n

(5) Plug in given values

(6) Solve for the requested rate of change

Optimization Steps

(1) Assign letter for each variable mentioned. Draw diagram

(2) Find an expression for the quantity to be optimized

(3) Use the conditions given in the problem to write the quantity to be optimized as a function f of ONE variable. Note any domain restrictions

(4) Optimize function f over its domain

How to find VERTICAL asymptote

(1) find the value that makes denominator equal to 0, but not the numerator

How to find HORIZONTAL asymptote

(1) take the limit of function as x approaches ∞

Definition of a derivative

lim as h→0 of [f(x+h)-f(x)]/h

Intermediate Value Theorem (IVT)

if f is continuous on [a, b], and m is a number between f(a) and f(b), then there exists a number 'c' between 'a' and 'b' such that f(c)=m

Definition of Continuity

A function is continuous when...

  1. f(c) is defined

  2. the limit as x→c exists

  3. the limit as x→c = f(c)