Jefferson County Schools
Jefferson County Schools

Mathematics - Adv. Algebra and Trig

Mathematics

The Tennessee Mathematics Framework for grades 9 through 12 includes skills for many different High School level courses, and contains the following process standards:

MATHEMATICS AS PROBLEM SOLVING

The study of mathematics must emphasize Problem Solving opportunities which require various approaches to investigate, understand, and apply mathematical concepts.
The development of each learner’s ability to solve problems is essential if he or she is to be a productive citizen. We strongly endorse the first recommendation of An Agenda for Action (NCTM, 1980): "Problem solving must be the focus of school mathematics." To develop such abilities, students need to work on problems that may take hours, days, and even weeks to solve. Some may be relatively simple exercises to be accomplished independently; some should involve small groups or an entire class working cooperatively; and some problems should also be open-ended with no single right answer.
"Mathematics as Problem Solving" emphasizes the learners’ use of a broad base of strategies to:
Investigate and understand mathematical content
Recognize and formulate problems from within and outside of mathematics
Use mathematical modeling and appropriate technology to solve a wide variety of problems, including real-world problems.
Generalize solutions and strategies, applying them to new problems
Increase confidence in their ability to use mathematics meaningfully and to become independent problem solvers.

MATHEMATICS AS COMMUNICATION

The study of mathematics must emphasize Communication by requiring opportunities to explain, conjecture, summarize, and defend one’s ideas orally, in writing, and through the use of technology.
The development of a learner’s power to think mathematically involves learning the signs, symbols, and terms of mathematics. This is best accomplished in problem situations in which students have an opportunity to read, write, and discuss ideas in which the use of the language of mathematics becomes natural. As students communicate their ideas, they learn to clarify, refine, and consolidate their answers.
"Mathematics as Communication" focuses on the learners’ development of using language and symbols to:
Reflect and clarify thinking about mathematical ideas and situations
Express mathematical ideas and relationships, orally, in writing, and with physical material, pictures, and diagrams
Understand and value the role of mathematical notation
Realize that representing, discussing, listening, writing, and reading mathematics are vital aspect of mathematics study and use
Use mathematical notation to formulate generalizations.

MATHEMATICS AS REASONING

The study of mathematics must emphasize Reasoning which requires critical thinking, logical argument, and justification of solutions, of thought processes, and of conjectures.
Making conjectures, gathering evidence, and building an argument to support such notions are fundamental to doing mathematics. In fact, a demonstration of good reasoning should be rewarded even more than the learner’s ability to find correct answers.
"Mathematics as Reasoning" concentrates on leading the learners to:
Make and test mathematical conjectures
Make, follow, and judge the value of mathematical arguments
Draw logical conclusions
Justify solution-finding processes and answers.

MATHEMATICAL CONNECTIONS

The study of mathematics must emphasize making Connections among the various topics within mathematics, between mathematics and other disciplines, and between mathematics and "real world" situations.
The mathematics curriculum is often viewed as consisting of several discrete stands; so topics tend to be taught in isolation. Unless the learners connect ideas both among and between areas of mathematics, they learn isolated skills rather than develop the ability to recognize general principles and procedures relevant to several areas. Connecting conceptual understanding to procedures will enable learners to apply, recreate, and invent new procedures when needed. Failure to connect conceptual understanding to procedures results in a view of mathematics as an arbitrary set of rules. Learners should have many opportunities to observe and work with the interaction of mathematics with other subjects and with everyday society. Problems become meaningful when they relate to the learners’ experiences. Mathematics must be integrated into contexts that give its symbols and processes practical meaning. The school environment is rich with opportunities to use mathematics in other subject areas as well as other subject area content in mathematics.
"Mathematical Connections" concentrate on enabling the learners to:
Appreciate mathematics as an integrated whole, linking conceptual and procedural knowledge within the discipline and relating multiple representations of concepts or procedures to one another.
Apply mathematical thinking and modeling to solve substantial problems that arise in other disciplines and curriculum areas, such as art, business, music, psychology, industrial arts, computer technology, social studies, and sciences, such as biology, chemistry, and physics.
Use, recognize, and value the varied roles of mathematics in their lives, cultures, and society.

The Principles and Standards for School Mathematics describe the mathematical understanding, knowledge, and skills that students should acquire from prekindergarten through grade 12.

Algebra I is the Tennessee End-of-course test that must be passed before graduation to earn a high school diploma.

Adv. Algebra and Trig

The Tennessee Mathematics Framework for grades 9 through 12 outlines skills to be taught in Advanced Algebra and Trigonometry.


Algebraic Concepts

    Inequalities: Polynomials
The learner will be able to obtain solutions to polynomial inequalities applying appropriate strategies.
Strand Bloom's Scope Hours Source
Inequalities Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  
    Quadratic Inequalities: Solving
The learner will be able to solve quadratic inequalities.
Strand Bloom's Scope Hours Source
Quadratic Equations/Formula Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  
    Solve Equations: Use/Strategies
The learner will be able to obtain solutions to many different equations using appropriate strategies.
Strand Bloom's Scope Hours Source
Solve Equations Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  

Calculus and Pre-Calculus

    Networks: Solve Real World
The learner will be able to solve real world problems involving networks.
Strand Bloom's Scope Hours Source
Graph Theory/Networks Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  

Discrete Mathematics

    Matrices: Understand Operations
The learner will be able to illustrate an understanding of operations on matrices.
Strand Bloom's Scope Hours Source
Matrices Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  
    Matrices: Finite Graphs
The learner will be able to solve real world problems involving finite graphs.
Strand Bloom's Scope Hours Source
Matrices Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  

Functions

    Trig. Function: Comprehend
The learner will be able to comprehend amplitude, period, phase shift, and vertical shift and use to graph trigonometric functions.
Strand Bloom's Scope Hours Source
Trigonometric Functions Master TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 40
  
    Problem Solving: Functions
The learner will be able to obtain solutions to real world problems represented by linear, quadratic, radical, rational, polynomial, exponential, and logarithmic functions.
Strand Bloom's Scope Hours Source
Problem Solving Master TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  
    Functions: Illustrate/Study
The learner will be able to illustrate and study many different functions and their attributes graphically, algebraically, verbally, and numerically.
Strand Bloom's Scope Hours Source
Functions Master TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  
    Functions: Understand/Definitions
The learner will be able to illustrate a comprehension of recursive and explicit definitions of functions and sequences.
Strand Bloom's Scope Hours Source
Functions Master TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  
    Trig. Function: Unit Circle
The learner will be able to define the trigonometric functions applying the unit circle.
Strand Bloom's Scope Hours Source
Trigonometric Functions Knowledge Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 40
  
    Trig. Function: Special Angles
The learner will be able to find values of trigonometric functions for special angles applying the unit circle and the symmetry of the circle.
Strand Bloom's Scope Hours Source
Trigonometric Functions Application Master 1.5 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 40
  
    Trig. Functions: Translation/Graph
The learner will be able to graph the translation of a given trigonometric function.
Strand Bloom's Scope Hours Source
Trigonometric Functions Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 40
  
    Trig. Functions: Model
The learner will be able to model periodic phenomena applying trigonometric functions and suitable technology.
Strand Bloom's Scope Hours Source
Trigonometric Functions Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 40
  
    Graphing: Transformations
The learner will be able to apply transformation concepts when sketching the graphs of functions.
Strand Bloom's Scope Hours Source
Graphing Functions Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  
    Representations: Real World Phenomena
The learner will be able to apply data analysis strategies to model real world phenomena using functions.
Strand Bloom's Scope Hours Source
Representations of Functions Application Master 2.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  

Geometry

    Transformations: Real World Problems
The learner will be able to solve real world problems involving geometric transformations.
Strand Bloom's Scope Hours Source
Transformations Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  

Numeration

    Sequences: Represent/Words
The learner will be able to use words to represent a sequence.
Strand Bloom's Scope Hours Source
Sequences Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  
    Sequences: Represent/Symbols
The learner will be able to use symbols to represent a sequence.
Strand Bloom's Scope Hours Source
Sequences Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  
    Sequences: Represent/List
The learner will be able to use a list to represent a sequence.
Strand Bloom's Scope Hours Source
Sequences Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  
    Sequences: Represent/Graphically
The learner will be able to represent sequences graphically.
Strand Bloom's Scope Hours Source
Sequences Application Master 0.5 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  
    Series: Sigma Notation
The learner will be able to use sigma notation with arithmetic and geometric series.
Strand Bloom's Scope Hours Source
Series Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  

Probability/Statistics

    Discrete/Continuous: Difference
The learner will be able to identify the difference between continuous and discrete scenarios.
Strand Bloom's Scope Hours Source
Discrete/Continuous Data Analysis Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  

Problem Solving

    Investigations: Individual/Groups
The learner will be able to explore problems individually or in cooperative groups.
Strand Bloom's Scope Hours Source
Investigations Master TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 40
  

Real Numbers and the Coordinate Plane

    Linear Inequalities: Solve
The learner will be able to obtain solutions to linear inequalities.
Strand Bloom's Scope Hours Source
Linear Inequalities Application Master 0.5 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 41
  

Technology

    Problem Solving: Technology
The learner will be able to appropriately use technology to solve problems.
Strand Bloom's Scope Hours Source
Problem Solving Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 40
  

Trigonometry

    Trigonometric Identities: Verifying
The learner will be able to verify trigonometric identities using both algebraic and graphical methods.
Strand Bloom's Scope Hours Source
Trigonometric Identities Master TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 40
  
    Angle Measure: Degree/Radian
The learner will be able to interchangeably use degrees and radians to illustrate angle measure and describe the advantages and/or disadvantages of their choice.
Strand Bloom's Scope Hours Source
Radians/Angles Master TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 40
  
    Trig. Concepts: Formulas
The learner will be able to use the trigonometric formulas for determining the area of triangles and circular sectors and segments.
Strand Bloom's Scope Hours Source
Trigonometric Concepts Master TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 40
  
    Trig. Ratios: Real World Problem Solving
The learner will be able to obtain solutions to real world problems using the trigonometric ratios, the Law of Sines, and Law of Cosines.
Strand Bloom's Scope Hours Source
Trigonometric Ratios Application Master 2.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 40
  
    Trig. Identities: Deriving Pythagorean
The learner will be able to derive the Pythagorean trigonometric identities (sine squared of an angle + cosine squared of that angle = 1, etc.).
Strand Bloom's Scope Hours Source
Trigonometric Identities Synthesis Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 40
  
    Trig. Equations: Solve Graphically
The learner will be able to obtain solutions to trigonometric equations graphically.
Strand Bloom's Scope Hours Source
Trigonometric Equations Application Master 1.0 TN: Curriculum Framework (9-12), January 30, 1998, Adv. Algebra and Trigonometry, p. 40
  

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