Clep Algebra Exam Help

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Last updated 9:13 PM on 6/12/26
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67 Terms

1
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Product Rule

multiply two expressions with same base, you add the exponents

<p>multiply two expressions with same base, you add the exponents</p>
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Quotient Rule

divide two expressions with same base, you subtract the exponents

<p>divide two expressions with same base, you subtract the exponents</p>
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Power Rule

raising a power to a power, you multiply the exponents

<p>raising a power to a power, you multiply the exponents</p>
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Power of Zero

anything to the 0 exponent is 1

<p>anything to the 0 exponent is 1</p>
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Negative Rule of Exponents

negative exponents in the numerator get moved to the denominator and become positive exponents

<p>negative exponents in the numerator get moved to the denominator and become positive exponents</p>
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Fractional Rule of Exponents

the numerator is the power of the term inside the root and the denominator is the power of the root

<p>the numerator is the power of the term inside the root and the denominator is the power of the root</p>
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Distribute an Exponent Over a Product

When an exponent is outside of parentheses and acts on a product, it can be distributed to all terms inside the parentheses, including coefficients and bases.

<p>When an exponent is outside of parentheses and acts on a product, it can be distributed to all terms inside the parentheses, including coefficients and bases.</p>
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Distribute an Exponent Over a Quotient

when the quotient of two nonzero real numbers is raised to an exponent, the exponent can be distributed to each factor and divided individually.

<p>when the quotient of two nonzero real numbers is raised to an exponent, the exponent can be distributed to each factor and divided individually.</p>
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Quadratic Formula

x = negative b + or - square root, b^2 -4AC/ all over 2a

<p>x = negative b + or - square root, b^2 -4AC/ all over 2a</p>
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Difference of Squares

a^2 − b^2 = (a+b)(a−b)

<p>a^2 − b^2 = (a+b)(a−b)</p>
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Perfect Square

(a+b)^2 = a^2 + 2ab + b^2

or

(a-b)^2 = a^2 - 2ab + b^2

<p>(a+b)^2 = a^2 + 2ab + b^2</p><p>or</p><p>(a-b)^2 = a^2 - 2ab + b^2</p>
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Sum of Two Square

a^2 + b^2 = (a+bi)(a-bi)

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Difference of Cubes

a^3-b^3= (a-b) (a^2+ab+b^2)

<p>a^3-b^3= (a-b) (a^2+ab+b^2)</p>
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Sum of Cubes

a^3+b^3= (a+b)(a^2-ab+b^2)

<p>a^3+b^3= (a+b)(a^2-ab+b^2)</p>
15
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a+b Whole Cube Formula

(a + b)^3 = a^3 +3a^2b + 3ab^2 + b^3

<p>(a + b)^3 = a^3 +3a^2b + 3ab^2 + b^3</p>
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a-b Whole Cube Formula

(a - b)^3 = a^3 - 3a^2b + 3ab^2 - b^3

<p>(a - b)^3 = a^3 - 3a^2b + 3ab^2 - b^3</p>
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Identity Function

f(x)=x

Domain: (-∞ ,∞ )

Range: (-∞ ,∞ )

<p>f(x)=x</p><p>Domain: (-∞ ,∞ )</p><p>Range: (-∞ ,∞ )</p>
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Squaring Function

f(x)=x^2

Domain: (-∞,∞)

Range: [0,∞)

<p>f(x)=x^2</p><p>Domain: (-∞,∞)</p><p>Range: [0,∞)</p>
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Cubing Function

f(x)=x^3

Domain: (-∞,+∞)

Range: (-∞,+∞)

<p>f(x)=x^3</p><p>Domain: (-∞,+∞)</p><p>Range: (-∞,+∞)</p>
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Absolute Value Function

f(x)=|x|

Domain: (-∞,∞)

Range: [0,∞)

<p>f(x)=|x|</p><p>Domain: (-∞,∞)</p><p>Range: [0,∞)</p>
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Reciprocal Function

f(x)=1/x

Domain: (-∞, 0) U (0,∞)

Range (-∞, 0) U (0,∞)

<p>f(x)=1/x</p><p>Domain: (-∞, 0) U (0,∞)</p><p>Range (-∞, 0) U (0,∞)</p>
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Square Root Function

f(x)=√x

Domain: [0, ∞)

Range: [0, ∞)

<p>f(x)=√x</p><p>Domain: [0, ∞)</p><p>Range: [0, ∞)</p>
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Exponential Growth Function

f(x)=e^x

Domain:(-∞, ∞)

Range: (0, ∞)

<p>f(x)=e^x</p><p>Domain:(-∞, ∞)</p><p>Range: (0, ∞)</p>
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Logarithmic Function

f(x)=lnx

Domain:(0, ∞)

Range: (-∞, ∞)

<p>f(x)=lnx</p><p>Domain:(0, ∞)</p><p>Range: (-∞, ∞)</p>
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Greatest Integer Function

f(x)=x

Domain:(-∞, ∞)

Range: All integers

<p>f(x)=x</p><p>Domain:(-∞, ∞)</p><p>Range: All integers</p>
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X-intercept

simply set y to 0 and solve for x.

Vertical line on graph

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Y-intercept

simply set x to 0 and solve for y

Horizontal line on graph

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The discriminant

b^2-4ac

If positive = 2 real solutions

if 0 = 1 real solution

if negative = 0 real solutions

<p>b^2-4ac</p><p>If positive = 2 real solutions</p><p>if 0 = 1 real solution</p><p>if negative = 0 real solutions</p>
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Point Slope Formula

y-y1= m(x-x1)

<p>y-y1= m(x-x1)</p>
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Natural Numbers

counting numbers

<p>counting numbers</p>
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Whole Numbers

counting numbers + zero

<p>counting numbers + zero</p>
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Integers

counting numbers, negative numbers, and 0

<p>counting numbers, negative numbers, and 0</p>
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Rational Numbers

any number that can be written as a fraction.

Includes repeating decimals and decimals that terminate

<p>any number that can be written as a fraction.</p><p>Includes repeating decimals and decimals that terminate</p>
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Irrational Numbers

A real number that is not rational. The decimal form neither terminates nor repeats.

<p>A real number that is not rational. The decimal form neither terminates nor repeats.</p>
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Real Numbers

The set of rational numbers and irrational numbers

<p>The set of rational numbers and irrational numbers</p>
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Imaginary Unit

i^2 is -1

<p>i^2 is -1</p>
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Complex Conjugate

The complex conjugate of a + bi is a - bi.

<p>The complex conjugate of a + bi is a - bi.</p>
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Varies Inversely

f(x)= k/x

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Real Roots

any time there is a sign change from negative to positive or vice versa

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Remainder Theorem

When p(x) is divided by (x-a)

Remainder = p(a)

<p>When p(x) is divided by (x-a)</p><p>Remainder = p(a)</p>
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Remainder Theorem +

When p(x) is divided by (ax+b)

Remainder = p(-b/a)

<p>When p(x) is divided by (ax+b)</p><p>Remainder = p(-b/a)</p>
42
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Exponential Growth

f(x) = a(1+r)^t

a = initial amount

r- rate of growth in decimal

t- time

<p>f(x) = a(1+r)^t</p><p>a = initial amount</p><p>r- rate of growth in decimal</p><p>t- time</p>
43
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Exponential Decay

f(x) = a(1-r)^t

a = initial amount

r- rate of growth in decimal

t- time

<p>f(x) = a(1-r)^t</p><p>a = initial amount</p><p>r- rate of growth in decimal</p><p>t- time</p>
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Log of 1

log of 1 = 0

<p>log of 1 = 0</p>
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Log of the Same Number as Base

log with same base as number = 1

<p>log with same base as number = 1</p>
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Log Product Rule

logb(x ∙ y) = logb(x) + logb(y)

<p>logb(x ∙ y) = logb(x) + logb(y)</p>
47
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Log Quotient Rule

log (x/y) = log x - log y

<p>log (x/y) = log x - log y</p>
48
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Log Power Rule

logb(x^y) = y ∙ logb(x)

<p>logb(x^y) = y ∙ logb(x)</p>
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Log Change of Base Rule

logb𝑏 a = [logc𝑐 a] / [logc𝑐 b]

<p>logb𝑏 a = [logc𝑐 a] / [logc𝑐 b]</p>
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Log Equality Rule

if you have two logarithms with the same base that are equivalent, then what is inside the logarithms are equivalent to each other

<p>if you have two logarithms with the same base that are equivalent, then what is inside the logarithms are equivalent to each other</p>
51
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Number Raised to Log

If you raise a number to the power of a logarithm that has that number as its base, it is equal to the number that you used in the logarithm.

<p>If you raise a number to the power of a logarithm that has that number as its base, it is equal to the number that you used in the logarithm.</p>
52
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Transformation Rules

y = af(bx + c) + d

c: horizontal shift (subtract c from the x-value)

a: veridical dilation (multiply the y-value by a)

b: horizontal dilation (divide the x-value by b)

d: vertical shift (add d to the y-value)

<p>y = af(bx + c) + d</p><p>c: horizontal shift (subtract c from the x-value)</p><p>a: veridical dilation (multiply the y-value by a)</p><p>b: horizontal dilation (divide the x-value by b)</p><p>d: vertical shift (add d to the y-value)</p>
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Quadratic Vertex Form

y=a(x-h)^2+k

To find the (x) of the vertex use -b/2a

from the standard form of y=ax^2+ bx + c

<p>y=a(x-h)^2+k</p><p>To find the (x) of the vertex use -b/2a</p><p>from the standard form of y=ax^2+ bx + c</p>
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End Behavior Rules

Even + Positive = 2 up

Even + Negative = 2 Down

Odd + Positive = down + up

Odd + Negative = up + down

<p>Even + Positive = 2 up</p><p>Even + Negative = 2 Down</p><p>Odd + Positive = down + up</p><p>Odd + Negative = up + down</p>
55
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Perpendicular Slope

Perpendicular lines have slopes that are the opposite and the reciprocal of the original slope Normal: 1/2 Perpendicular: -2

<p>Perpendicular lines have slopes that are the opposite and the reciprocal of the original slope Normal: 1/2 Perpendicular: -2</p>
56
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Product Rule for Radicals

the radical of the product of two numbers is equal to the product of the radicals of the same two numbers

<p>the radical of the product of two numbers is equal to the product of the radicals of the same two numbers</p>
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Quotient Rule for Radicals

When two radicals are divided that have the same index they may be combined as a single radical having that index and radicand equal to the quotient of the two radicands

<p>When two radicals are divided that have the same index they may be combined as a single radical having that index and radicand equal to the quotient of the two radicands</p>
58
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Arithmetic Sequence

an=a1+(n-1)d

a1= first term

d= common difference between 2 terms

n= number of terms

an= nth term

<p>an=a1+(n-1)d</p><p>a1= first term</p><p>d= common difference between 2 terms</p><p>n= number of terms</p><p>an= nth term</p>
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Sum of Arithmetic Sequence

S = (n/2) (a1 + an)

a1= first term

an= last term

n= total number of terms

<p>S = (n/2) (a1 + an)</p><p>a1= first term</p><p>an= last term</p><p>n= total number of terms</p>
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Geometric Sequence

an=a1(r)^n-1

a1= first term

r= difference between 2 terms

n= term you want to find out

<p>an=a1(r)^n-1</p><p>a1= first term</p><p>r= difference between 2 terms</p><p>n= term you want to find out</p>
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Sum of Geometric Sequence

Sn=a1(1-r^n)/1-r

a1= first term

r= difference between 2 terms

n= term you want to find out

<p>Sn=a1(1-r^n)/1-r</p><p>a1= first term</p><p>r= difference between 2 terms</p><p>n= term you want to find out</p>
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Binomial Theorem

Expand (x+3)^5

Step 1: x term in descending order

Step 2: 3 term in ascending order

Step 3: Coefficient (nCk or pascals triangle)

First + last terms will always be 1

Second + second to last terms will always be you exponent (in this case 5)

Step 4: simplify terms

<p>Expand (x+3)^5</p><p>Step 1: x term in descending order</p><p>Step 2: 3 term in ascending order</p><p>Step 3: Coefficient (nCk or pascals triangle)</p><p>First + last terms will always be 1</p><p>Second + second to last terms will always be you exponent (in this case 5)</p><p>Step 4: simplify terms</p>
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Pascal's Triangle

knowt flashcard image
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Polynomial Long Division

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Even Function

Even Function: f(−x)= f(x)

Negate the x value, y value is the same for both

<p>Even Function: f(−x)= f(x) </p><p>Negate the x value, y value is the same for both</p>
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Odd Function

Odd Function: f(−x)=−f(x)

Negate the x value to get a negated y value.

<p>Odd Function: f(−x)=−f(x)</p><p>Negate the x value to get a negated y value. </p>
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Still learning (33)

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