Algebra II
Course Description:
Algebra II
is a course that uses problem situations, physical models, and appropriate
technology to extend algebraic thinking and engage student reasoning. Problem-solving
situations will provide all students an environment that promotes communication
and fosters connections within mathematics, to other disciplines, and to
the real world. Students will use physical models to represent, explore,
and develop abstract concepts. The use of appropriate technology will help
students apply mathematics in an increasingly technological world. The concepts
emphasized in the course include analysis of “family
of functions,” solving systems of equations, graphing, data analysis,
and logarithmic and exponential functions.
Standard Number 1.0: Number
and Operations
Students will
recognize, represent, model, and apply real numbers and operations and will
demonstrate an understanding of properties and operations of the complex
number system.
Learning Expectations:
The student will:
1.1 demonstrate
an understanding of the subsets, elements, properties, and operations of
the complex number system;
1.2 connect
physical, graphical, verbal, and symbolic representations of real numbers;
1.3 articulate,
model, and apply the concept of inverse (e.g. opposites, reciprocals, and
powers and roots);
1.4 describe,
model, and apply inverse operations;
1.5 connect
physical, graphical, verbal, and symbolic representations of absolute value;
1.6 use
a variety of notations appropriately (e.g. logarithmic, factorial, sigma,
delta, radical);
1.7 perform
operations on algebraic expressions and informally justify the procedures
chosen.
PerformanceIndicatorsState:
At Level 1, the student is
able to
· order
a given set of real numbers;
· identify
the reciprocal of a real number;
· multiply
two polynomials with each factor having no more than two terms.
At Level 2, the student is
able to
· perform
basic operations using complex numbers (i.e., addition, subtraction, and
multiplication);
· select
a graph that represents an absolute value equation on a coordinate plane;
· identify
the exponential form of a logarithmic expression and vice versa;
· simplify
expressions with rational and negative exponents;
· add,
subtract, and multiply algebraic expressions.
At Level 3, the student is
able to
· determine
the conjugate of a complex number.
Performance Indicators
Teacher:
As documented through teacher
assessment –
At Level 1, the student is
able to
· probe
the relationships among various subsets of the real-number system;
· explore
various representations of absolute value on a number line;
· use
ratios and proportions to represent real-world problems;
· use
estimation to determine a reasonable solution for a tedious arithmetic computation
of a real-world situation that may involve unit conversions;
· investigate
product and factoring patterns of polynomials;
· compare
and contrast the GCF and the LCM of a set of algebraic expressions;
· add,
subtract, and perform scalar multiplication on matrices using appropriate
technology.
At Level 2, the student is able to
· analyze
the relationships among sets of numbers using a Venn diagram of the complex
number system;
· use
delta notation to represent the rate of change in a real-world situation;
· use
the inverse notation of powers and roots;
· perform
basic operations on rational algebraic expressions.
At Level 3, the student is able to
· justify
the procedures chosen when performing operations on algebraic expressions
and equations;
· use
factorial notation for coefficients in a binomial expansion;
· determine
the multiplicative inverse of a complex number;
· formulate
the representation of a series using sigma notation.
Sample Task: Students design and build a
simple fractal from available materials.
Linkages: Mathematics – Estimation,
Measurement, and Computation. Make connections to concept mapping in literature,
language arts, and social studies. Connect estimation and computation strategies
to business and finance.
Standard 2.0: Algebra
Students will describe, extend, analyze, and create a
wide variety of patterns and functions using appropriate materials and representations
in real-world problem solving, and will demonstrate an understanding of the
behavior of a variety of functions and their graphs.
Learning Expectations:
The student will:
2.1 analyze
mathematical patterns related to algebra and geometry in real-world problem
solving;
2.2 use
algebraic thinking to generalize a pattern by expressing the pattern in
functional notation;
2.3 solve
linear systems using a variety of techniques, including matrices;
2.4 communicate
the meaning of variables in algebraic expressions, equations, and inequalities;
2.5 manipulate
the algebraic functions with constants and analyze graphs to describe the
behavior of functions;
2.6 apply
the concept of rate of change;
2.7 identify
and represent a variety of functions (e.g. linear, quadratic, cubic);
2.8 identify,
describe, and articulate the characteristics and the parameters of a parent
function;
2.9 interpret
results of algebraic procedures;
2.10 apply
the concept of variable in simplifying algebraic expressions, solving equations,
and solving inequalities;
2.11 interpret
graphs that depict real-world phenomena;
2.12 model
real-world phenomena using functions and graphs;
2.13 describe
the domain and range of functions and articulate restrictions imposed either
by the operations or by the real-life situations which the functions represent;
2.14 use
linear programming to solve real-world problems.
PerformanceIndicatorsState:
As documented through
state assessment –
At Level 1, the student is able to
· translate
a verbal sentence into an algebraic equation and vice versa;
· select
the algebraic equation that generalizes the pattern represented by data in
a given table;
· solve
multi-step (more than two steps) linear equations (one set of parentheses
on each side of the equations and/or variables on both sides);
· select
the graph that represents a given linear function expressed in slope-intercept
form;
· select
the graph that models a given real-world situation (i.e., linear and non-linear);
· identify
the graphical representation of the solution to a one-variable inequality
on a number line.
Level 2, the student is able to
· select
functional notation to generalize a given numeric pattern;
· solve
one-variable linear equations with rational expressions;
· select
the graph of a two-variable inequality;
· determine
the domain of polynomial, rational, square root, exponential and logarithmic
functions;
· determine
the range of a wide variety of functions given a graph;
· solve
a system of linear equations with 2 variables (e.g. substitution, elimination,
Cramer’s Rule, and graphing);
· apply
properties of logarithms to simplify a logarithmic expression;
· identify
matrices that model given real-world situations.
At Level 3, the student is
able to
· determine
the inverse of a logarithmic function given its graph.
Performance Indicators Teacher:
As documented through teacher
observation –
At Level 1, the student is
able to
· explain
what the changes in slope of a non-linear graph representing a real-world
situation;
· analyze
mathematical patterns related to algebra and geometry in real-world problem
solving.
At Level
2, the student is able to
· collect
real-world data to make generalizations;
· apply
results of algebraic procedures to real-world situations;
· use
a variety of methods to solve linear systems in two and three variables (e.g.,
elimination, substitution, Cramer’s Rule, matrices, and graphing);
· explain
the restrictions on the variable in a radical equation;
· choose
an appropriate method to find the roots of a quadratic equation (e.g. completing
the square, quadratic formula, factoring, or graphing calculator);
· solve
quadratic inequalities;
· construct
matrices given real world situation.
At Level 3,
the student is able to
· evaluate
the graph of a function to determine if it is periodic;
· sketch
a system of linear inequalities and determine the maximum or minimum value
of the related function;
· justify
the procedures chosen when performing operations on algebraic expressions
and equations;
· find
the maximum or minimum value given the graph of the feasible region of the
real world linear programming application;
· determine
all the roots of a higher order polynomial (i.e., Descartes’ Rule of
Signs, Rational Root Theorem, and Synthetic Division).
Sample Task: Examine patterns found in Pascal’s
Triangle.
Linkages: Mathematics: Statistics and Probability.
Data analysis and pattern recognition in science.
Standard 3.0: Geometry
Students will investigate,
model, and apply geometric properties and relationships.
Learning
Expectations:
3.1 apply
geometric properties, formulas, and relationships to solve real-world problems;
3.2 justify
conclusions using deductive reasoning;
3.3 use
inductive reasoning to make conjectures;
3.4 communicate
position using spatial sense with two- and three-dimensional coordinate systems;
3.5 perform
a given transformation and predict the results of the transformation.
PerformanceIndicatorsState:
At Level 1, the student is able to
· apply
the given Pythagorean Theorem to real-world problems.
At Level 2, the student is
able to
· predict
the graphical transformation that occurs when coefficients and/or constants
of given function are changed (no trigonometric or logarithmic functions);
· apply
proportion and the concepts of similar triangles to solve real world problems.
.
At Level 3, the student is able to
· describe
the transformation that has changed a “parent function” to the
given related function (e.g., right shift of 3 units, reflection in the x-axis).
Performance Indicators
Teacher:
At Level 1, the student is able to
· estimate
the irrational solution of a real-world problem using the Pythagorean Theorem.
At Level 2, the student is
able to
· apply
the distance formula to obtain the equation of a circle in order to solve
real-world problems;
· use
deductive reasoning to draw conclusions.
At Level 3, the student is
able to
· use
matrices to find the area of a triangle on a coordinate plane;
· investigate
and explore the conics section.
Sample Task:
Students use properties of
similar triangles to determine the height of objects that are difficult to
measure.
Linkages:
Research and discuss geometric
applications such as art.
Standard 4.0: Measurement
The student will understand and be able to apply the units,
systems and processes of measurement.
4.1apply
measurement concepts and relationships in algebraic and geometric problem-solving
situations;
4.2apply
appropriate techniques, tools, and formulas to determine measurements.
PerformanceIndicatorsState:
At Level 1, the student is able to
· select
the area representation for a given product of two binomials.
At Level 2, the student is able to
· apply
the given formula to find area and circumference of circles, area and perimeter
of polygons, and volume of regular solids;
At Level 3, the student is
able to
· solve
real world problems given logarithmic and exponential formulas (e.g. Ph scale,
Richter scale.).
Performance Indicators
Teacher:
At Level 1, the student is
able to
· select
the appropriate unit of measure given the real world situation.
At Level 2, the student is able to
· use
appropriate measurements in collecting data for a real world situation.
There
are no teacher performance indicators at Level 3.
Sample Task:
Students construct designs
using basic geometric constructions. Then they transfer the design to a piece
of 8" X 11" pane of plexiglass and paint the pane to create a “stained
glass.” Students construct one of the regular 3-dimensional solid and
compute the volume and surface area.
Linkages:
Mathematics – Geometry and
Number & Operations. Surveying, construction, and architecture. .Mosaic
Tiling.
Standard 5.0: Data
Analysis and Probability
The student will collect, organize, represent, and interpret
data; make and evaluate inferences and predictions; present and evaluate
arguments based on data analysis; and model situations to determine theoretical
and experimental probabilities.
Learning Expectations:
5.1 understand
concept of randomness in sampling;
5.2 apply
appropriate technology in data collection and analysis;
5.3 apply
counting principles of permutations and combinations using appropriate
technology;
5.4 apply
theoretical and experimental probability to analyze the likelihood of
an event;
5.5 collect,
represent, and describe linear and nonlinear data sets developed from
real world;
5.6 make
predictions from a data set using curve fitting with appropriate technology;
5.7 make
inferences about a data set using appropriate measures of central
tendency and dispersion;
5.8 describe
and apply the normal distribution and its properties;
5.9 identify
mutually exclusive and non-mutually exclusive events;
5.10 analyze
the probability of dependent events and of independent events;
5.11 use
simulations to estimate probability;
5.12 choose,
construct, and analyze appropriate graphical representations for a data
set;
5.13 analyze
the validity of statistical conclusions and the use, misuse, and abuse
of data.
PerformanceIndicatorsState:
At Level 1, the student is able to
· make
a prediction from the graph of a real-world data set;
· determine
the measures of central tendency for a given set of real-world data;
· choose
the matching linear graph when given a set of ordered pairs representing
real-world data.
At Level 2, the student is able to
· categorize
the correlation of a scatterplot using real-world data (i.e., positive, negative,
strong, or weak);
· determine
the number of possible outcomes for a given experiment (i.e. the multiplication
counting principle, permutations, or combinations);
· determine
the theoretical probability of a simple event for a given situation;
· determine
the theoretical probability of a compound event (i.e., dependent or independent,
union and intersection).
At Level 3, the student is able to
· find
the equation for the line of best fit given a scatterplot depicting real-world
data.
Performance Indicators
Teacher:
At Level 1, the student is able to
· analyze
student-collected data to make predications or generalizations.
· use
simulations to help predict the probability of a given situations;
· determine
the theoretical probability of mutually exclusive events for a given situation;
· analyze
theoretical or experimental probability to determine the likelihood of an
event;
· analyze
data using linear and quadratic functions using the appropriate technology;
· analyze
the validity of statistical conclusions and the use, misuse, and abuse of
data;
· identify
the mean and the standard deviation given the graph of a normal distribution.
At Level 3, the student is
able to
· use
the measure of central tendency which best represents the given real-world
data set given a distribution curve.
Sample Task:
Students analyze real-world
data collected from the newspaper and explore and report the uses, misuses,
and abuses of reported statistical data. Students search the internet to
collect age and market value of a selected vehicle over a specific period
of time. They use a graphing calculator to create a scatterplot and construct
a line of best fit to predict the depreciation of the vehicle.
Linkages:
Sports; social studies;
economics.
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