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Laabri

IM 2 Semester 1 Study Guide (Due 12/11/23)

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83 Nsɛmmisa

Day 1 12/6/23

Simplifying Radicals

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Multiplying Radicals

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Square Roots with Variables

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5
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5
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Identifying Parts of Expressions/Simplifying Expressions

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Monomial times a Polynomial

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Distribute then Combine Like Terms

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Multiplying Binomial X Binomial

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Special Product: Sum and a Difference

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Special Products: Square of a Binomial

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Day 2 12/7/23

Inequalities and Interval Notation

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Sketching Functions

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Absolute Value

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Compound Inequalities

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Solving Absolute Value Inequalities

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20
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Graphing Absolute Value Functions

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Day 4 (12/11/23)

Features of Quadratic Functions

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A.CED.2
F.IF.4

Solving Quadratic Equations by Graphing

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20
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Solving Quadratics

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Solving Quadratic Word Problem

Asemmisa {{asɛmmisaAhyɛnsode}}
1.

Simplify this radical.

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2.

Simplify this expression that contains radicals.

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3.

Simplify this expression that contains radicals.

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4.

Simplify each radical

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5.

Simplify each radical

Simplifying Expressions by Multiplying Exponents (Product Rule)

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6.

Simplify. Your answer should not have negative exponents.

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7.

Simplify. Your answer should not have negative exponents.

Simplifying Expressions by Dividing Exponents

(Quotient Rule)

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8.

Simplify. Your answer should not have negative exponents.

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9.

Simplify. Your answer should not have negative exponents.

Simplifying Expressions by raising Exponents by another Exponent (very meta)

(Power Rule)

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10.

Simplify. Your answer should not have negative exponents.

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11.

Simplify. Your answer should not have negative exponents.

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12.

Simplify. Your answer should not have negative exponents.

Simplifying Expressions (mixed practiced)

Using all three rules: Product Rule, Quotient Rule, and the Power Rule

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13.

Simplify. Your answer should not have negative exponents.

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14.

Simplify. Your answer should not have negative exponents.

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15.

Simplify. Your answer should not have negative exponents.

Simplifying Negative Exponents

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16.

Simplify this expression. Your answer should not have negative exponents.

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17.

Simplify this expression. Your answer should not have negative exponents.

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18.

Simplify this expression. Your answer should not have negative exponents.

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19.

Use the properties of exponents to match each expression to its simplified version.

Draggable itemarrow_right_altCorresponding Item

arrow_right_alt

arrow_right_alt

arrow_right_alt

arrow_right_alt

arrow_right_alt

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20.

Identify the variable terms, constant terms, and coefficients

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21.

Use page 6 in your notes to identify and classify the parts of this polynomial:

Degree (first, second, third, etc.)

# of Terms (1, 2, 3, etc.):

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22.

Use page 6 in your notes to identify and classify the parts of this polynomial:

Degree (first, second, third, etc.)

# of Terms (1, 2, 3, etc.):

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23.

Directions: Simplify each expression by combining like terms. (Write your answer in standard form)

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24.

Directions: Simplify each expression by combining like terms. (Write your answer in standard form)

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25.

Directions: Simplify each expression by combining like terms. (Write your answer in standard form)

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26.

Directions: Simplify each expression by combining like terms. (Write your answer in standard form)

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27.

Find the product of these expressions. Final answers must be in standard form.

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28.

Find the product of these expressions. Final answers must be in standard form.

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29.

Find the product of these expressions. Final answers must be in standard form.

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30.

Distribute, then simplify the remaining expression. Final answers must be in standard form.

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31.

Write an expression in simplest form to represent the area of the shaded region.

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32.

Find the Product of this binomial * binomial using the box method.

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33.

Find the Product of this binomial * binomial using the box method.

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34.

Find the Product of this binomial * binomial using the box method.

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35.

Find the Product of these polynomials.

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36.

Find the square of this binomial.

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37.

Find the square of this binomial.

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38.

Put the interval notations and graphs in the right category.

  • [3.5]

  • [5,∞)

  • (3,5)

  • (-∞,-9)

  • (3,5]

  • [3,5)

  • Open Interval

  • Closed Interval

  • Both

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39.

Match the inequailty and graph with the correct interval notation.

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40.

Use interval notation to describe the domain and range of this function.

D:

R:

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41.

Use interval notation to describe the domain and range of this function.

D:

R:

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42.

Use interval notation to describe the domain and range of this relation.

D:

R:

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43.

For what interval of x is the function f(x):

Increasing?

Decreasing?

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44.

For what interval of x is the function f(x)

Negative?

Positive?

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45.

Write the following in interval notation.

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46.

Write the following in interval notation.

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47.

Write the following in inequality notation.

[-4,3)

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48.

Write the following in inequality notation.

(-∞,-3]

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49.

Write the following in inequality notation.

(-∞,2)U[4,∞)

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50.

Use the graph to create a function with the following features:

1) As x gets smaller; the function approaches infinity. x→ - ∞; f(x)→- ∞

2) As x gets larger; the function approaches infinity. x→ ∞; f(x)→ ∞

3) The graph of the function passes through the x-axis at -6

4) The graph of the function passes through the y-axis at -6

5) The graph of the function passes through the x-axis at 4

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51.

The definition of absolute value is...

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52.

Explain why this is not possible:

|x|= - 9.5

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53.

Find the absolute value of this expression:

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54.

Find the absolute value of this expression:

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55.

Find the absolute value of this expression:

Solving Absolute Value Equations

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Asemmisa {{asɛmmisaAhyɛnsode}}
56.

Solve this absolute Value equation:

+ Case

- Case

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57.
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Asemmisa {{asɛmmisaAhyɛnsode}}
60.

Solve and graph the compound inequality for the given variable.

or

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61.

Solve and graph the compound inequality for the given variable.

and

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62.

Match each inequality, absolute value, and interval notation with the correct graph. (Not every choice will be used)

  • |x|≥2

  • |x|≤2

  • |x|<2

  • (-2,2)

  • -2<x<2

  • x<-2 or x>2

  • (-∞,-2)∪(2,∞)

  • |x|>2

  • -2≤x≤2

Asemmisa {{asɛmmisaAhyɛnsode}}
63.

Match each inequality, absolute value, and interval notation with the correct graph. (Not every choice will be used)

  • [-3,13]

  • -3≤x≤13

  • |x-5|<8

  • (-3,13)

  • |x|<4

  • x<-4 or x>4

  • (-∞,-4)∪(4,∞)

  • x≤-4 or x≥4

  • |x|>4

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64.

Solve and graph the inequality

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65.

Solve and graph.

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66.

Use a set of x values to graph the function y=|x-3|+ 2

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67.

1)What are the critical values of this absolute value function:

y=|x-1|+2

Opens (upward or downward)

Axis of Symmetry

Vertex

Slope

2) Use the critical values of this equation to graph it.

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68.

What are the critical values of this absolute value function:

Opens (upward or downward)

Axis of Symmetry

Vertex

Slope

2) Use the critical values of this equation to graph it.

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69.

How is the absolute function below different than the parent function y=|x|:

y=2|x+6|-2

Opens (Upward or Downward)

Horizontal Shift (write none if there is none)

Vertical Shift (write none if there is none)

Stretched (0<|a|<1), Compressed (|a|>1), or None .

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70.

How is the absolute function below different than the parent function y=|x|:

y=-5|x-8|+3

Opens (Upward or Downward)

Horizontal Shift (write none if there is none)

Vertical Shift (write none if there is none)

Stretched (0<|a|<1), Compressed (|a|>1), or None .

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71.

What is the vertex of this parabola? Name the coordinate.

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72.

What is the axis of symmetry of this quadratic function? It should be in the form of x=h.

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73.

Describe the transformation of:

Stretch or Compression?(If a=1 or a=-1, then write none)

Opens upward or downward?

Horizontal shift? (If there is no shift write none)

Vertical shift? (If there is no shift write none)

Axis of Symmetry? (x=h)

Vertex (h,k)

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74.

Graph the function and state the vertex.

Vertex

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75.

What is the graph of the function?

Be sure to include relevant graph detail: use the axis of symmetry and vertex to sketch the graph and use arrows to represent end behavior.

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76.

Graph each quadratic function and each of its linear factors. Then identify the x-intercepts and the axis of symmetry of each parabola.

Left x-intercept

Right x-intercept

Axis of Symmetry

Vertex

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77.

Solve this quadratic equation graphing.

x=

x=

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78.

Solve this quadratic equation graphing.

x=

x=

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79.

Solve the following Quadratic function:

(7x + 3)(2x + 6) = 0

x=

x=

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80.

Solve the following Quadratic function:

x2 + 2x - 15 = 0

x=

x=

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81.

Solve the following Quadratic function:

2x2 + 5x + 2 = 0

x=

x=

Calculating Room Areas

People frequently need to calculate the area of rooms, boxes or plots of land. An example might involve building a rectangular box where one side must be twice the length of the other side.

For example, if you have only 4 square feet of wood to use for the bottom of the box, with this information, you can create an equation for the area of the box using the ratio of the two sides. This means the area -- the length times the width -- in terms of x would equal x times 2x, or 2x2. This equation must be less than or equal to four to successfully make a box using these constraints.

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82.

For each rectangle with area given, determine the binomial factors that describe the dimensions.

Length

Width

Objects Affected by Gravity

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83.

Jason jumped off a cliff into the ocean in Acapulco while vacationing with some friends. His height as a function of time could be modeled by the function h(t) = -16t²+ 16t + 480 , where t is the time in seconds and h is the height in feet.

How long did it take for Jason to reach his maximum height?

What was the highest point that Jason reached?

Jason hit the water after how many seconds?

Solve this absolute Value equation:

+ Case

- Case

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58.

Solve this absolute Value equation:

+ Case

- Case

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59.

Solve this absolute Value equation:

+ Case

- Case