Grade 9
72 Units, 212 Skills
Geometry - Angles and Transformations - Practice
Unit 1
Fraction Multiplication - Practice
Unit 2
Exponents - Advanced
Unit 3
Order of Operations - Advanced
Unit 4
Probability and Counting - Single Event - Advanced
Unit 5
Probability and Statistics - Counting and Probability Foundations
Unit 6
Fraction Division - Intro
Unit 7
Geometry - Circle Area and Circumference - Practice
Unit 8
Geometry - Isosceles and Equilateral Triangles
Unit 9
Digits and Divisibility - Practice
Unit 10
Decimal Multiplication - Advanced
Unit 11
Geometry - Intersecting, Parallel, and Perpendicular Lines
Unit 12
Fraction Addition and Subtraction - Advanced
Unit 13
Decimal Division - Advanced
Unit 14
Fraction Addition and Subtraction, Mixed - Practice
Unit 15
Exponents - Multiplication and Division - Advanced
Unit 16
Geometry - Circle Partial Area and Circumference - Intro
Unit 17
Patterning - Number Patterns Advanced
Unit 18
Measurement - Units Advanced - Metric
Unit 19
Geometry - Surface Area of 3D Shapes - Practice
Unit 20
Factoring and Greatest Common Factor - Advanced
Unit 21
Algebra Manipulating Variables - Intro
Unit 22
Geometry - Cylinders - Intro
Unit 23
Probability and Statistics - Counting and Probability Practice
Unit 24
Percentages - Advanced
Unit 25
Measurement - Unit Conversion Intro - Metric
Unit 26
Speed, Distance, and Time - Advanced
Unit 27
Ratios of Lengths - Intro
Unit 28
Cartesian Grid Geometry Logic - Practice
Unit 29
Percents and Simple Interest - Practice
Unit 30
Squares and Square Roots - Advanced
Unit 31
Area and Perimeter Logic - Practice
Unit 32
Slope - Intro
Unit 33
Algebra Basic Concepts - Advanced
Unit 34
Factoring and Lowest Common Multiple - Advanced
Unit 35
Probability and Statistics - Mean, Median, and Mode - Advanced
Unit 36
Geometry - Volume Logic with 3D Shapes - Intro
Unit 37
Scientific Notation - Multiplication and Division - Intro
Unit 38
Pythagoras - Intro
Unit 39
Negative Integers - Practice
Unit 40
Speed, Distance, and Time Logic Challenges - Intro
Unit 41
Factoring, Multiplication, Division, Fractions - Practice
Unit 42
Pythagorean Triples - Intro
Unit 43
Cartesian Grid Distance - Intro
Unit 44
Probability and Statistics - Factorial Form Intro
Unit 45
Exponents - Power Law - Practice
Unit 46
Pythagorean Theorem with Decimals - Intro
Unit 47
Algebra Manipulating Variables - Practice
Unit 48
Exponents - Negative Bases and Exponents - Intro
Unit 49
Exponents - Fractional Bases and Exponents - Intro
Unit 50
Algebra Systems of Equations - Intro
Unit 51
Measurement - Units Large/Small Intro - Metric
Unit 52
Pythagoras - Practice
Unit 53
Factoring, Multiplication, Division, Fractions - Advanced
Unit 54
Slopes and Parallels - Intro
Unit 55
Measurement Conversion and Map Scale - Intro - Metric
Unit 56
Probability - Set Operations - Intro
Unit 57
Patterns and Sums - Intro
Unit 58
Slopes and Perpendiculars - Intro
Unit 59
Geometry - Circle Area, Sectors and Donuts - Intro
Unit 60
Fraction Multiplication - Advanced
Unit 61
Measurement - Unit Conversion Practice - Metric
Unit 62
Pythagorean Theorem in 3D - Intro
Unit 63
Fraction Addition and Subtraction, Mixed - Advanced
Unit 64
Probability and Counting - Multiple Events - Intro
Unit 65
Ratios of Lengths - Practice
Unit 66
Radicals - Simplifying Intro
Unit 67
Fraction Division - Practice
Unit 68
Scientific Notation - Multiplication and Division - Practice
Unit 69
Geometry - Intermediate - Intro
Unit 70
Line Equations and Graphing - Intro
Unit 71
Probability and Statistics - Probability with Factorials Intro
Unit 72
This math unit begins with teaching the Pythagorean Theorem for determining missing lengths in two-dimensional shapes and swiftly progresses to complex three-dimensional applications. Initially, students learn to compute unknown side lengths using radical expressions in 2D scenarios, establishing a strong foundation in geometrical reasoning and algebraic skills. As the unit progresses, learners move onto three-dimensional contexts, applying the theorem in more intricate settings involving double triangle configurations and rectangular prisms. Learners navigate through different challenges, from computing hypotenuse distances in 3D between two points using established prism dimensions to inversely calculating specific dimensions given a hypotenuse measurement. The unit methodically enhances spatial reasoning, with tasks evolving in complexity from finding full dimensions to focusing on calculations involving half the dimensions (height and depth), reinforcing the understanding of three-dimensional spatial relationships and dimensions. The structured progression meticulously builds proficiency in applying the Pythagorean Theorem not only in theoretical geometry but also in practical three-dimensional applications, crucial for advanced geometry understanding.Skills you will learn include:
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This math topic focuses on applying the Pythagorean theorem within three-dimensional geometry specifically on prisms. It teaches how to calculate different dimensions (like depth) given the hypotenuse (line connecting a point to the center of a prism face). The problems require understanding and implementing these concepts to find the correct dimensions, enhancing skills in 3D applications of the Pythagorean theorem with multiple-choice responses.
moreThis math topic involves practicing the Pythagorean Theorem in a three-dimensional context, specifically with prisms. The focus is on calculating dimensions (such as depth) from given distances (hypotenuse) to the center of a face of the prism. The problems provided ask students to deduce the depth when they know the distance from a point to the center of a particular face of the prism, enhancing their understanding of geometry and spatial reasoning in 3D objects. Each question offers multiple-choice answers, allowing students to solve and verify their calculations.
moreThis math topic covers applying the Pythagorean Theorem in three-dimensional contexts, specifically using it to solve problems involving a rectangular prism. The primary skill practiced is calculating the depth based on the hypotenuse distance from a point to the center of one of the prism's faces, taking into account only half the height and half the depth dimensions. Multiple-choice questions are provided to test understanding, with each question having several possible depth values as answers.
moreThis math topic focuses on applying the Pythagorean Theorem in three-dimensional contexts to solve problems with prisms, specifically finding the depth. The specific skill practiced is determining the depth when given the hypotenuse to the midpoint of a prism's edge (half depth). Each problem provides different numerical scenarios to help understand the relationship between the hypotenuse and depth dimensions in three dimensions. Scenarios are presented where the hypotenuse value varies, and multiple-choice answers are provided to evaluate the depth.
moreThis math topic focuses on applying the 3D Pythagorean Theorem to calculate distances in a rectangular prism. Specifically, students are tasked with finding the distance from a given point (Point A) to the center of a face (BCDE) of the prism. Each problem involves determining this hypotenuse distance using the theorem, where distances like half the height and half the depth of the prism are utilized in calculations. The worksheet contains multiple-choice questions that allow students to practice and solidify their understanding of geometric principles in three-dimensional space.
moreThis topic focuses on applying the Pythagorean Theorem in three dimensions, specifically relating to finding dimensions of a rectangular prism when given the hypotenuse. It involves determining the depth of the prism from a corner to the center of an opposite edge, given a specific diagonal distance. The problems are set at level 2, indicating they may require a moderate understanding of the concept. The topic is designed to help students spatially visualize and calculate dimensions in 3D geometric shapes.
moreEither Missing Length (Radical) (Level 1)
This math topic covers the Pythagorean Theorem focusing on finding the missing length in simple 2D triangles and extends to a 3D introductory context. The problems require calculating the length of a missing side represented as the square root of a number, providing real-world applications of this theorem. Each question is accompanied by multiple choice answers, presented as different square root values, which strengthens understanding of radical expressions and reinforces practical solving skills in geometry.
moreEither Missing Length (Radical) (Level 2)
This math topic focuses on using the Pythagorean Theorem to find the length of missing sides in various two-dimensional shapes, with answers presented as square root values. It introduces participants to foundational concepts in dealing with three-dimensional geometric scenarios by applying this classic theorem to find unknown lengths, enhancing their skills in algebraic manipulation and understanding of radical expressions. The problems are structured to develop and reinforce the ability to calculate precise side lengths necessary for more complex geometry involved in three-dimensional spaces.
moreThis math topic focuses on applying the Pythagorean Theorem in three-dimensional contexts, specifically calculating the hypotenuse in a double triangle setup. It aims to develop spatial visualization skills by extending the familiar two-dimensional Pythagorean Theorem to three-dimensional geometry. The problems require finding the distance between two points which lie in different dimensions, enhancing understanding of geometric concepts in 3D space. The worksheet includes multiple questions with various numerical answer options, designed to aid in the practical application of the theorem in diverse scenarios.
moreThis math topic focuses on applying the Pythagorean Theorem in three dimensions to calculate the hypotenuse between two points in double triangle configurations. It includes a series of practice problems testing the ability to calculate distances in three-dimensional space using given two-dimensional triangle dimensions. Each question provides multiple-choice options for the answers. These problems are designed for learners at a Level 2 complexity, contributing to a broader understanding of three-dimensional applications of the Pythagorean Theorem.
moreThis math topic involves practicing the Pythagorean Theorem in a three-dimensional space, focusing on double triangles and calculating the hypotenuse between two points. Specifically, the problems require finding the distance from point A to point D on pairs of triangles, presumably applying the theorem consecutively in a multistep 3D spatial reasoning context. Each question provides an image of the geometric setup and multiple answers, from which the correct one needs to be chosen. This forms part of an introduction to the Pythagorean Theorem in 3D.
moreThis math topic focuses on applying the Pythagorean Theorem in three-dimensional contexts, specifically involving calculating distances or dimensions in a 3D space using 'double triangles.' The problems ask for the length of a specific side in a 3D figure given the hypotenuse distance between two points. This is intended for introductory practice in understanding how the Pythagorean Theorem extends to three dimensions, enhancing spatial reasoning and geometry skills.
moreThis math topic focuses on applying the Pythagorean Theorem to three-dimensional scenarios. Specifically, it involves calculating the length of a specific dimension (side BC) in a double triangle setup from a given hypotenuse length (from point A to point D). Students are provided multiple questions with different hypotenuse lengths and must use the Pythagorean Theorem to solve for the missing dimension. Each question offers multiple-choice answers. This is part of a broader introduction to the Pythagorean Theorem in three dimensions.
moreThis math topic focuses on applying the Pythagorean Theorem in three-dimensional contexts, specifically examining scenarios involving double triangles where students calculate lengths from known hypotenuse measurements. There are several questions where students are given the distance between two points in 3D space and they must determine the length of one of the side dimensions. Each question provides multiple-choice answers. This subject serves as part of an introduction to the broader concept of the Pythagorean Theorem in 3D geometric contexts.
moreThis math topic focuses on applying the Pythagorean Theorem in three-dimensional space to find the distance between two points on a rectangular prism. Each problem presents a rectangular prism with labeled points and requires calculating the hypotenuse (the straight-line distance) between two points, using the dimensions given. The problems are introductory and designed to help learners visualize and solve geometric problems involving distances in 3D objects. Multiple choice answers are provided for each question.
moreThis math topic focuses on applying the Pythagorean Theorem in three dimensions, specifically using a rectangular prism to find the distance between two points (hypotenuse). It is aimed at enhancing the understanding of geometric principles in a 3D context and improving problem-solving skills using the Pythagorean Theorem. Learners are provided with visual representations of the prisms and specific dimensions to calculate the diagonal distance, reinforcing both spatial awareness and algebraic calculations.
moreThis math topic practices using the Pythagorean Theorem in three dimensions, focusing on finding hypotenuse distances within a rectangular prism. Each of the five questions tasks students with calculating the hypothetical straight-line distance between two points within the prism, applying knowledge of 3D geometry. This is part of an introductory unit on three-dimensional applications of the Pythagorean Theorem.
moreThis math topic focuses on applying the Pythagorean theorem in three dimensions, particularly related to prisms. The problems involve determining one dimension of a prism (the depth) while knowing the hypotenuse distance between two points (A to B). This topic requires understanding and manipulating the three-dimensional Pythagorean theorem to solve for the missing dimension given the total distance between two diagonal endpoints. Each question presents a different distance and set of potential depths to further challenge problem-solving skills.
moreThis math topic focuses on using the Pythagorean Theorem in a three-dimensional context to find distances in geometric shapes like cubes and rectangular prisms. Specifically, the problems involve calculating the hypotenuse or straight-line distance from a given point to the center point of a face (identified by points such as BC) within these 3D shapes. Students are given multiple choices for each problem, allowing them to apply 3D Pythagorean principles to solve practical problems. This topic is an introductory level to Pythagorean Theorem in 3 dimensions.
moreThis math topic covers the application of the Pythagorean Theorem in 3D geometry, specifically focusing on calculating the distance from a specified point on a rectangular prism or cube to the midpoint of an edge. The problems involve a variety of scenarios in which students must apply the theorem to find the hypotenuse (distance) in three dimensions, requiring insight into spatial geometry and critical thinking. This is part of an introductory unit on the Pythagorean Theorem applied to three-dimensional shapes.
moreThis math topic focuses on applying the Pythagorean Theorem in three-dimensional space, specifically within the context of a prism. Students are asked to solve for unknown dimensions, such as the depth, given the hypotenuse length between two points on the prism. This involves understanding how the theorem extends beyond two dimensions to calculate distances in three-dimensional geometry. The skill level is considered Level 2, requiring the ability to manipulate and solve equations derived from the Pythagorean Theorem in a three-dimensional space. This forms part of a broader unit introducing the Pythagorean Theorem in 3D.
moreThis topic focuses on applying the Pythagorean Theorem within three-dimensional spaces, specifically involving rectangular prisms and cubes. The main skill practiced is calculating hypotenuse distances from a point to a central point of a face, by interpreting and solving problems presented in a three-dimensional context. Four questions challenge the understanding of spatial relationships and the application of Pythagorean principles in 3D geometry. Each problem includes a visual depiction of the scenario along with multiple choice answers, enhancing problem-solving skills in practical geometrical applications.
moreThis math topic focuses on applying the Pythagorean Theorem in a three-dimensional context, specifically with prisms. Students are tasked with finding the length of certain dimensions (specifically the depth) given the hypotenuse of a right triangular prism. The skills practiced include understanding and utilizing the Pythagorean Theorem for solving real-world geometry problems in three-dimensional spaces, enhancing spatial perception, and mathematical reasoning.
moreThis math topic focuses on applying the Pythagorean Theorem in a three-dimensional context, specifically within the framework of a rectangular prism. It explores calculating the distance from a point to the center of a face on the prism. The exercises appear to be set at an introductory level, enhancing spatial visualization skills alongside algebraic computation. Each question asks the learner to find this distance given different prisms, reinforcing the understanding of three-dimensional Pythagorean applications. The presence of multiple-choice answers suggests it also tests analytical skills in choosing the correct computation result.
moreThis math topic focuses on applying the Pythagorean Theorem in three dimensions specifically within prisms. It involves calculating the depth given the distance from a point to the center of a face of the prism, using a concept described as "Hypotenuse to Dimension (Half Depth)." Students face multiple-choice problems where they must deduce the correct depth from given options, based on the provided hypotenuse value. This is part of an introductory unit on 3D applications of the Pythagorean Theorem.
moreThis math topic focuses on utilizing the Pythagorean Theorem in three dimensions, specifically in finding the distance from a point to the center of a face on a rectangular prism. It covers calculating hypotenuse lengths when given half the dimensions of height and depth. The problems are designed to enhance students' understanding of three-dimensional geometry and spatial reasoning, further applying these concepts in practical scenarios involving three-dimensional figures. Each question presents a rectangular prism with varying dimensions, asking for the calculation of specific distances to demonstrate mastery of the 3D Pythagorean Theorem.
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