Use the following Media4Math resources with this Illustrative Math lesson.
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Closed Captioned Video: Geometry Applications: 3D Geometry, 1 | Closed Captioned Video: Geometry Applications: 3D Geometry, 1Topic3D Geometry DescriptionDescription: This segment introduces Platonic solids, including tetrahedron, cube, and dodecahedron, emphasizing their congruent edges, vertices, and angles. It connects these geometric figures to both natural and man-made structures, setting the stage for exploring 3D geometry applications. |
3-Dimensional Figures and Applications of 3D Geometry |
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Closed Captioned Video: Geometry Applications: 3D Geometry, 2 | Closed Captioned Video: Geometry Applications: 3D Geometry, 2Topic3D Geometry DescriptionDescription: This segment explores pyramids, particularly Mayan and Egyptian structures, to distinguish rectangular and square bases. It discusses the volume of truncated pyramids using proportional relationships and introduces the concept of tiered volume reduction through geometric sequences. |
3-Dimensional Figures, Pyramids and Applications of 3D Geometry |
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Closed Captioned Video: Geometry Applications: 3D Geometry, 3 | Closed Captioned Video: Geometry Applications: 3D Geometry, 3Topic3D Geometry DescriptionDescription: This segment examines cylinders, using the Shanghai Tower as a case study. It highlights how adjustments to height and radius affect volume and surface area, demonstrating these principles with geometric calculations and their architectural applications in energy efficiency. |
3-Dimensional Figures, Cylinders and Applications of 3D Geometry |
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Closed Captioned Video: Geometry Applications: Area and Volume | Closed Captioned Video: Geometry Applications: Area and VolumeTopicArea and Volume |
Applications of Surface Area and Volume, Surface Area and Volume |
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Closed Captioned Video: Geometry Applications: Area and Volume, 1 | Closed Captioned Video: Geometry Applications: Area and Volume, 1TopicArea and Volume DescriptionThis segment explores the concept of density, using the Titanic to demonstrate buoyancy and the relationship between mass and volume. It introduces direct variation, rational functions, and how these principles apply to ship design for optimal floating capacity. |
Applications of Surface Area and Volume, Surface Area and Volume |
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Closed Captioned Video: Geometry Applications: Area and Volume, 1 | Closed Captioned Video: Geometry Applications: Area and Volume, 1TopicArea and Volume DescriptionThis segment explores the concept of density, using the Titanic to demonstrate buoyancy and the relationship between mass and volume. It introduces direct variation, rational functions, and how these principles apply to ship design for optimal floating capacity. |
Applications of Surface Area and Volume, Surface Area and Volume |
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Closed Captioned Video: Geometry Applications: Area and Volume, 2 | Closed Captioned Video: Geometry Applications: Area and Volume, 2TopicArea and Volume DescriptionThis segment focuses on surface area, using the Louvre Pyramid to highlight geometric tessellations and triangular net calculations. It explains the surface area formula for pyramids and how these calculations are applied in architectural design and material efficiency. |
Applications of Surface Area and Volume, Surface Area and Volume |
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Closed Captioned Video: Geometry Applications: Area and Volume, 3 | Closed Captioned Video: Geometry Applications: Area and Volume, 3TopicArea and Volume DescriptionThis segment explores the surface area-to-volume ratio using the Citigroup Building as an example. It discusses how this ratio impacts energy efficiency in buildings and compares it to natural examples like polar bears and snakes for context. |
Applications of Surface Area and Volume, Surface Area and Volume |
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Definition--Functions and Relations Concepts--Absolute Value Function | Absolute Value Function
TopicFunctions and Relations DefinitionAn absolute value function is a function that contains an algebraic expression within absolute value symbols. It is defined as f(x)=|x| where |x| denotes the absolute value ofx. DescriptionThe absolute value function is significant in mathematics because it measures the distance of a number from zero on the number line, regardless of direction. This function is linear in nature, as it can be broken into two linear pieces: one for x≥0 and one for x<0 |
Special Functions |
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Definition--Functions and Relations Concepts--Composite Function | Composite FunctionTopicFunctions and Relations DefinitionA composite function is a function that is formed when one function is applied to the result of another function. DescriptionComposite functions are significant in mathematics because they allow the combination of two functions to form a new function. This is denoted as (f∘g)(x) = f(g(x)). Composite functions are widely used in various fields, including computer science for function composition in programming and in calculus for chain rule applications. For example, if f(x) = 2x and g(x) = x + 3, then the composite function (f∘g)(x) = f(g(x)) = 2(x + 3) = 2x+6 |
Composite Functions |
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Definition--Functions and Relations Concepts--Conic Sections | Conic SectionsTopicFunctions and Relations DefinitionConic sections are the curves obtained by intersecting a plane with a double-napped cone. DescriptionConic sections include circles, ellipses, parabolas, and hyperbolas, which are fundamental in the study of geometry and algebra. These shapes are described by quadratic equations and have numerous applications in physics, engineering, and astronomy. For example, the orbits of planets are ellipses, and parabolic mirrors are used in telescopes and satellite dishes. The general quadratic equation for conic sections is Ax2 + Bxy + Cy2 + Dx + Ey + F = 0 |
Conic Sections |
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Definition--Functions and Relations Concepts--Constant Function | Constant FunctionTopicFunctions and Relations DefinitionA constant function is a function that always returns the same value, no matter the input. DescriptionThe constant function is one of the simplest types of functions in mathematics, expressed as f(x) = c |
Relations and Functions |
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Definition--Functions and Relations Concepts--Continuous Function | Continuous FunctionTopicFunctions and Relations DefinitionA continuous function is a function that does not have any breaks, holes, or gaps in its domain. DescriptionContinuous functions are fundamental in calculus and mathematical analysis because they allow for the application of limits, derivatives, and integrals. A function f(x) is continuous if, for every point 𝑐 c in its domain, lim x→c f(x) = f(c) |
Relations and Functions |
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Definition--Functions and Relations Concepts--Decreasing Function | Decreasing FunctionTopicFunctions and Relations DefinitionA decreasing function is a function where the value of the function decreases as the input increases. DescriptionDecreasing functions are important in mathematics because they describe scenarios where an increase in one variable leads to a decrease in another. This is mathematically represented as f(x1) > f(x2) for any 𝑥1 < 𝑥2 |
Relations and Functions |
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Definition--Functions and Relations Concepts--Dependent Variable | Dependent VariableTopicFunctions and Relations DefinitionA dependent variable is a variable whose value depends on one or more other variables. |
Relations and Functions |
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Definition--Functions and Relations Concepts--Discontinuous Function | Discontinuous FunctionTopicFunctions and Relations DefinitionA discontinuous function is a function that has one or more points where it is not continuous. |
Relations and Functions |
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Definition--Functions and Relations Concepts--Discrete Functions | Discrete FunctionsTopicFunctions and Relations DefinitionDiscrete functions are functions that are defined only for a set of discrete points. |
Special Functions |
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Definition--Functions and Relations Concepts--Distorting a Function Horizontally | Distorting a Function HorizontallyTopicFunctions and Relations DefinitionDistorting a function horizontally involves stretching or compressing the graph of the function along the x-axis. DescriptionHorizontal distortions of functions are significant because they alter the input values while maintaining the overall shape of the graph. This is mathematically represented as f(kx) where k is a constant. If k > 1, the function compresses horizontally, and if 0 < 𝑘 < 1, it stretches. |
Relations and Functions |
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Definition--Functions and Relations Concepts--Distorting a Function Vertically | Distorting a Function VerticallyTopicFunctions and Relations DefinitionDistorting a function vertically involves stretching or compressing the graph of the function along the y-axis. DescriptionVertical distortions of functions are significant because they alter the output values while maintaining the overall shape of the graph. This is mathematically represented as kf(x) |
Relations and Functions |
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Definition--Functions and Relations Concepts--Domain of a Function | Domain of a FunctionTopicFunctions and Relations DefinitionThe domain of a function is the set of all possible input values (x-values) for which the function is defined. |
Relations and Functions |
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Definition--Functions and Relations Concepts--Even Function | Even FunctionTopicFunctions and Relations DefinitionAn even function is a function that satisfies the condition f(x) = f(−x) for all x in its domain. DescriptionEven functions are important in mathematics because they exhibit symmetry about the y-axis. This property is useful in various fields, including physics and engineering, where symmetry simplifies analysis and problem-solving. For example, the function f(x)=x2 |
Relations and Functions |
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Definition--Functions and Relations Concepts--Function | FunctionTopicFunctions and Relations DefinitionA function is a relation that uniquely associates each element of a set with exactly one element of another set. |
Relations and Functions |
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Definition--Functions and Relations Concepts--Function Machine | Function MachineTopicFunctions and Relations DefinitionA function machine is a conceptual tool used to understand how functions work by visualizing inputs and outputs. DescriptionThe function machine is a useful educational tool that helps students grasp the concept of functions by visualizing the process of converting inputs into outputs. It emphasizes the idea that a function takes an input, processes it according to a specific rule, and produces an output. For example, if the function is f(x) = x + 2 |
Relations and Functions |
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Definition--Functions and Relations Concepts--Function Notation | Function NotationTopicFunctions and Relations DefinitionFunction notation is a way to represent functions in the form f(x), where f denotes the function and x denotes the input variable. DescriptionFunction notation is a standardized way to write functions, making it easier to understand and communicate mathematical relationships. It is widely used in algebra, calculus, and other branches of mathematics. For example, the notation f(x) = x2 |
Relations and Functions |
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Definition--Functions and Relations Concepts--Function Table | Function TableTopicFunctions and Relations DefinitionA function table is a table that lists input values and their corresponding output values for a given function. DescriptionFunction tables are useful tools in mathematics for organizing and analyzing the relationship between inputs and outputs of a function. They help in visualizing how a function behaves and in identifying patterns. For example, a function table for f(x) = 2x + 1 |
Relations and Functions |
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Definition--Functions and Relations Concepts--Graphs of Functions | Graphs of FunctionsTopicFunctions and Relations DefinitionGraphs of functions are visual representations of the relationship between input values and output values of a function. DescriptionGraphs of functions are essential tools in mathematics for visualizing how a function behaves. They provide a clear picture of the relationship between the input and output values, making it easier to analyze and interpret the function. For example, the graph of f(x) = x2 |
Relations and Functions |
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Definition--Functions and Relations Concepts--Graphs of Relations | Graphs of RelationsTopicFunctions and Relations DefinitionGraphs of relations are visual representations of the relationship between two sets of values, not necessarily functions. |
Relations and Functions |
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Definition--Functions and Relations Concepts--Increasing Function | Increasing FunctionTopicFunctions and Relations DefinitionAn increasing function is a function where the value of the function increases as the input increases. |
Relations and Functions |
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Definition--Functions and Relations Concepts--Independent Variable | Independent VariableTopicFunctions and Relations DefinitionAn independent variable is a variable that represents the input or cause and is manipulated to observe its effect on the dependent variable. |
Relations and Functions |
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Definition--Functions and Relations Concepts--Inverse Function | Inverse FunctionTopicFunctions and Relations DefinitionAn inverse function is a function that reverses the effect of the original function, such that f(f−1(x)) = x. |
Functions and Their Inverses |
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Definition--Functions and Relations Concepts--Odd Function | Odd FunctionTopicFunctions and Relations DefinitionAn odd function is a function that satisfies the condition f(−x) = −f(x) for all x in its domain. |
Relations and Functions |
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Definition--Functions and Relations Concepts--Parametric Equations | Parametric EquationsTopicFunctions and Relations DefinitionParametric equations are a set of equations that express the coordinates of the points of a curve as functions of a variable called a parameter. |
Relations and Functions |
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Definition--Functions and Relations Concepts--Piecewise Functions | Piecewise FunctionsTopicFunctions and Relations DefinitionPiecewise functions are functions defined by multiple sub-functions, each applying to a certain interval of the domain. |
Special Functions |
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Definition--Functions and Relations Concepts--Range of a Function | Range of a FunctionTopicFunctions and Relations DefinitionThe range of a function is the set of all possible output values (y-values) that the function can produce. DescriptionUnderstanding the range of a function is crucial in mathematics because it defines the scope of possible outputs. The range is determined by the function's rule and the domain. For example, the range of the function f(x) = x2 |
Relations and Functions |
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Definition--Functions and Relations Concepts--Recursive Function | Recursive FunctionTopicFunctions and Relations DefinitionA recursive function is a function that calls itself in its definition. DescriptionRecursive functions are important in mathematics and computer science because they provide a way to solve problems by breaking them down into simpler sub-problems. They are defined by a base case and a recursive case. For example, the factorial function f(n) = n⋅f(n−1) with f(0)=1 |
Relations and Functions |
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Definition--Functions and Relations Concepts--Reflecting a Function | Reflecting a FunctionTopicFunctions and Relations DefinitionReflecting a function involves flipping the graph of the function over a specified axis. DescriptionReflecting functions is significant in mathematics because it helps in understanding the symmetry and transformations of functions. A function can be reflected over the x-axis or y-axis, changing its orientation. For example, reflecting the function f(x) = x2 |
Relations and Functions |
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Definition--Functions and Relations Concepts--Relation | RelationTopicFunctions and Relations DefinitionA relation is a set of ordered pairs, where each element from one set is paired with an element from another set. |
Relations and Functions |
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Definition--Functions and Relations Concepts--Step Function | Step FunctionTopicFunctions and Relations DefinitionA step function is a function that increases or decreases abruptly at certain points, creating a series of steps. |
Special Functions |
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Definition--Functions and Relations Concepts--Translating a Function | Translating a FunctionTopicFunctions and Relations DefinitionTranslating a function involves shifting the graph of the function horizontally, vertically, or both, without changing its shape. DescriptionTranslating functions is significant in mathematics because it helps in understanding how functions behave under shifts. A function can be translated horizontally by adding or subtracting a constant to the input, and vertically by adding or subtracting a constant to the output. For example, translating the function f(x) = x2 horizontally by 2 units results in |
Relations and Functions |
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Definition--Functions and Relations Concepts--Vertical Line Test | Vertical Line TestTopicFunctions and Relations DefinitionThe vertical line test is a method used to determine if a graph represents a function by checking if any vertical line intersects the graph more than once. DescriptionThe vertical line test is important in mathematics because it helps in identifying whether a given graph represents a function. If a vertical line intersects the graph at more than one point, then the graph does not represent a function. This test is used in various fields, including computer science for validating functions in programming and in mathematics for analyzing graphs. For example, the graph of |
Relations and Functions |
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Definition--Functions and Relations Concepts--Visual Models of Functions | Visual Models of FunctionsTopicFunctions and Relations DefinitionVisual models of functions are graphical representations that illustrate the relationship between input and output values of functions. DescriptionVisual models of functions are important in mathematics because they provide a clear and intuitive way to understand how functions behave. These models include graphs, tables, and diagrams that show the relationship between input and output values. For example, the graph of f(x) = x2 |
Relations and Functions |
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Definition--Functions and Relations Concepts--Visual Models of Relations | Visual Models of RelationsTopicFunctions and Relations DefinitionVisual models of relations are graphical representations that illustrate the relationship between two sets of values, not necessarily functions. |
Relations and Functions |
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Definition--Functions and Relations Concepts--Visualization of the Dependent Variable | Visualization of the Dependent VariableTopicFunctions and Relations DefinitionVisualization of the dependent variable involves graphically representing the outcomes or responses that depend on the independent variable. |
Relations and Functions |
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Definition--Functions and Relations Concepts--Visualization of the Independent Variable | Visualization of the Independent VariableTopicFunctions and Relations DefinitionVisualization of the independent variable involves graphically representing the variable that is manipulated to observe its effect on the dependent variable. |
Relations and Functions |
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Formulas--Volume of a Cube | Formulas--Volume of a Cube
The formula for the Volume of a Cube. This is part of a collection of math formulas. To see the complete collection of formulas, click on this link. Note: The download is a JPG file.Related ResourcesTo see resources related to this topic click on the Related Resources tab above. |
Volume |
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Formulas--Volume of a Cylinder | Formulas--Volume of a Cylinder
The formula for the Volume of a Cylinder. This is part of a collection of math formulas. To see the complete collection of formulas, click on this link. Note: The download is a JPG file.Related ResourcesTo see resources related to this topic click on the Related Resources tab above. |
Volume and Cylinders |
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Formulas--Volume of a Rectangular Prism | Formulas--Volume of a Rectangular Prism
The formula for the Volume of a Recantular Prism. This is part of a collection of math formulas. To see the complete collection of formulas, click on this link. Note: The download is a JPG file.Related ResourcesTo see resources related to this topic click on the Related Resources tab above. |
Volume |
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Formulas--Volume of a Sphere | Formulas--Volume of a Sphere
The formula for the Volume of a Sphere. This is part of a collection of math formulas. To see the complete collection of formulas, click on this link. Note: The download is a JPG file.Related ResourcesTo see resources related to this topic click on the Related Resources tab above. |
Volume |
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Formulas--Volume of a Square Pyramid | Formulas--Volume of a Square Pyramid
The formula for the Volume of a Square Pyramid. This is part of a collection of math formulas. To see the complete collection of formulas, click on this link. Note: The download is a JPG file.Related ResourcesTo see resources related to this topic click on the Related Resources tab above. |
Volume |
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Formulas--Volume of a Triangular Prism | Note: The download is a JPG file. Related ResourcesTo see the complete collection of Formulas, click on this link: https://media4math.com/math-formulas |
Volume |