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Objectives and Content
Level 3

SIMMS CoversModule 1: Colorful Scheduling (coloring theory, topology, and graph theory)
In this module, students will:

  • Determine the chromatic number of maps and graphs
  • Create graphs of maps
  • Solve scheduling problems using graphs and coloring theory
  • Identify topologically equivalent graphs
  • Identify planar graphs
  • Determine the relationship between chromatic number and the number of vertices of a complete planar graph
  • Investigate the four-color theorem for maps drawn on flat surfaces and spheres

Module 2: What’s Your Bearing? (trigonometric ratios)
In this module, students will:

  • Draw maps to scale
  • Consider sources of error in measurement
  • Use right-triangle trigonometry and the Pythagorean theorem to determine unknown lengths and angle measures
  • Convert among angle measures, bearings, and azimuths
  • Investigate the relationship between the sine and cosine ratios of central angles
  • Determine sine and cosine ratios for angles with measures between 90 and 180 degrees
  • Develop the trigonometric identities Level 3 Image 1 and Level 3 Image 2
  • Derive and use the law of sines
  • Derive and use the law of cosines

Module 3: Can It! (trigonometric functions and the unit circle)
In this module, students will:

  • Identify the relationships among angle measure in radians, arc length, and the coordinates of points on a unit circle
  • Identify circular functions by the shapes of their graphs
  • Identify the amplitude and period of circular functions
  • Examine some trigonometric identities
  • Determine the equations for sine or cosine curves based on their graphs
  • Determine transformations of the graphs of circular functions
  • Use sine or cosine functions to model real-world data
  • Identify the inverse functions for sine, cosine, and tangent
  • Determine appropriate restrictions on the domain and range of an inverse trigonometric function
  • Use inverse trigonometric functions to solve trigonometric equations

Module 4: Log Jam (exponential and logarithmic functions)
In this module, students will:

  • Investigate the characteristics of the pH scale
  • Compare decimal and rational exponents
  • Represent expressions with rational exponents as radicals
  • Rewrite expressions containing negative exponents using positive exponents
  • Use logarithmic functions to model data
  • Graph data on logarithmic scales
  • Convert between exponential and logarithmic equations
  • Simplify common logarithms
  • Perform logarithmic arithmetic
  • Compare properties of logarithms to properties of exponents
  • Use logarithms to solve exponential equations

Module 5: Motion Pixel Productions (transformational geometry and polar coordinate systems)
In this module, students will:

  • Identify transformations given the preimage and image
  • Create rotations on a polar coordinate system
  • Create rotations on a rectangular coordinate system
  • Convert coordinates of a point between polar and rectangular systems
  • Use inverse trigonometric functions to determine angles of rotation
  • Represent reflections, rotations, translations, and dilations of objects in the plane using 3 x 3 matrices and matrix multiplication
  • Find the image of a figure under a composition of transformations
  • Determine single 3 x 3 matrices to represent compositions of transformations
  • Express a glide reflection as a composition of a reflection and a translation
  • Define the relationship between a preimage and any congruent image with different orientation as a glide reflection
  • Determine the reflection line and translation vector for any glide reflection
  • Express any transformation with congruent preimage and image as a composition of at most three reflections

Module 6: Prove It (logical connectives, truth tables, Venn diagrams,
and proof)

In this module, students will:

  • Identify the truth value of a conditional
  • Use Venn diagrams to represent conditionals
  • Explore the relationship between the connective and and set intersection and the relationship Between the connective or and set union
  • Use Venn diagrams and truth tables to illustrate compound statements
  • Use and and or to form compound statements
  • Write negations of conditional statements
  • Investigate the negations of compound statements through truth tables, Venn diagrams, and De Morgan’s laws
  • Create truth tables illustrating conditional, negated, and compound statements
  • Identify and use logically equivalent forms to rewrite conditional and compound statements
  • Find the converse, inverse, and contrapositive of a conditional
  • Write proofs using a chain of if-then statements
  • Explore proof by exhaustion
  • Find counterexamples
  • Use deductive reasoning
  • Write direct proofs
  • Develop indirect proofs

Module 7: More or Less (inequalities and limits)
In this module, students will:

  • Write, interpret, and solve linear inequalities
  • Use mapping diagrams to represent mathematical relationships
  • Investigate a graphical representation of a limit
  • Write, interpret, and solve inequalities containing absolute values
  • Write, interpret, and solve nonlinear inequalities

Module 8: Big Business (rational functions)
In this module, students will:

  • Graph and analyze rational functions, including domains, discontinuities, and asymptotes
  • Evaluate functions around discontinuities
  • Write rational functions as sums of polynomial and rational expressions
  • Determine equations of asymptotes
  • Determine restrictions on domains of rational functions
  • Graph nonlinear inequalities and systems of relations

Module 9: Strive for Quality (sampling and binomial probability)
In this module, students will:

  • Distinguish between statistics and parameters
  • Select simple random samples
  • Model sampling with binomial experiments
  • Use tree diagrams to determine conditional probabilities
  • Identify mutually exclusive and independent events
  • Develop the binomial probability formula
  • Determine theoretical binomial probabilities
  • Determine the expected value of a binomial experiment

Module 10: Fly the Big Sky with Vectors (vectors, law of cosines, and
law of sines)

In this module, students will:

  • Define and describe vectors
  • Multiply vectors by scalars
  • Identify equivalent and opposite vectors
  • Add vectors using the tip-to-tail method
  • Use vectors as mathematical models
  • Apply the law of cosines and law of sines
  • Examine some trigonometric identities
  • Identify the ambiguous case for the law of sines
  • Describe vectors using components
  • Represent vectors on a Cartesian coordinate system
  • Add vectors using components

Module 11: It’s All in the Family (transformations of functions)
In this module, students will:

  • Recognize parent functions for selected exponential, logarithmic, rational, and periodic functions
  • categorize functions into families
  • Identify transformations to a parent function
  • Transform functions graphically
  • Transform functions algebraically
  • Use transformed functions as mathematical models

Module 12: Nearly Normal (normal distribution and probability)
In this module, students will:

  • Organize data using frequency and relative frequency tables, histograms, and polygons
  • Describe data sets using mean and standard deviation
  • Use simulations to generate data
  • Identify binomial experiments
  • Calculate the mean and standard deviation of binomial distributions
  • Examine uniform probability distributions
  • Distinguish between discrete and continuous probability distributions
  • Calculate probabilities for specific intervals within probability distributions
  • Examine normal distributions and the 68–95–99.7 rule
  • Determine probabilities using the properties of normal distributions

Module 13: Controlling the Sky with Parametrics (parametric equations)
In this module, students will:

  • Identify the domains and ranges of parametric graphs
  • Describe differences between parametric and nonparametric equations for the same linear graph
  • Model linear paths with parametric equations
  • Use component vectors to write parametric equations
  • Convert between parametric and nonparametric equations for a given linear graph
  • Use parametric equations and their graphs to model circular paths

Module 14: Having a Ball (non-Euclidean geometry)
In this module, students will:

  • Identify properties of lines (great circles) on a sphere
  • Determine how to measure angles on a sphere
  • Compare the relationships among points and lines in a plane and among points and lines on a sphere
  • Compare properties of Euclidean geometry with properties of spherical geometry
  • Determine the sum of the measures of the interior angles of a triangle on a sphere
  • Describe properties of quadrilaterals on a sphere
  • Compare similarity in a plane and similarity on a sphere

Module 15: Classical Crystals (polyhedra, Platonic solids, and Archimedean solids)
In this module, students will:

  • Identify regular polyhedra
  • Draw nets for and build models of regular polyhedra
  • Calculate the surface areas of regular polyhedra
  • Determine the conditions necessary to form the vertex of a regular polyhedron
  • Determine the measure of dihedral angles for regular polyhedra
  • Describe relationships among the sides, vertices, and lines of symmetry for regular polygons
  • Determine planes of symmetry for regular polyhedra
  • Draw nets for and build models of an Archimedean solid
  • Examine Euler’s formula for the relationship among the numbers of edges, faces, and vertices of a polyhedron
  • Determine planar maps and graphs of a regular polyhedron
  • Identify the dual of a polyhedron


© 2008 SIMMS Integrated Mathematics

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