Integrated Mathematics I
Course description:
This course is the first of three courses in a series that
uses a more integrated approach to cover the same algebra and geometry concepts
and skills that are included in the traditional three course series. The problem
situations, models, and technology used will foster connections among the various
strands of mathematics and develop concepts from multiple perspectives.
Standard
1.0: Number and Operations
Students will recognize, represent, model, and apply real
numbers and operations verbally, physically, symbolically, and graphically.
Learning Expectations:
At Level 1, the student is able to
· select
the best estimate for the coordinate of a given point on a number line (only
rational);
· identify
the opposite of a rational number;
· determine
the square root of a perfect square less than 169;
· use
exponents to simplify a monomial written in expanded form;
· apply
order of operations when computing with integers using no more than two sets
of grouping symbols and exponents 1 and 2;
· select
a reasonable solution for a real-world division problem in which the remainder
must be considered;
· compare
and contrast the GCF and LCM of a set of numbers.
At Level 2, the student is able to
· probe
the relationships among various subsets of the real number system;
· compare
and contrast the GCF and LCM of a set of algebraic expressions;
· order
a given set of rational numbers (both fraction and decimal notations);
· identify
the reciprocal of a rational number;
· add
and subtract algebraic expressions;
· multiply
two polynomials with each factor having no more than two terms;
· use
estimation to determine a reasonable solution for a tedious arithmetic computation;
· select
ratios and proportions to represent real-world problems (e.g. scale drawings,
sampling);
· perform
operations on matrices using appropriate technology (addition, subtraction,
and scalar multiplication).
At Level 3, the student is able to
· scrutinize
approximate values of real numbers such as pi and the square root of two.
Sample Task:
Students research the
history of prime numbers and their uses.
Linkages:
Make connections to types of
numbers used in science, social studies, and finance.
Standard
2.0: Algebra
2.1 communicate
the meaning of variables in algebraic expressions, equations, and inequalities;
2.2 identify
dependent and independent variables in real-world situations;
2.3 apply the
concept of variable in simplifying algebraic expressions, solving equations,
and solving inequalities;
2.4 represent
the solution set linear equations and inequalities in one variable symbolically,
graphically, and verbally;
2.5 interpret
graphs that depict real-world phenomena;
2.6 model real-world
phenomena using graphs;
2.7 represent
functions with equations, graphs, tables, and words;
2.8 understand
and apply slope as rate of change;
2.9 solve real-world
problems represented by linear functions and interpret the slope and intercepts;
2.10 solve systems of two equations
in two unknowns using a variety of techniques;
2.11 recognize and extend numerical,
geometric, and spatial patterns;
2.12 describe the domain and range
of functions imposed either by operations or by real-life situations that the
functions represent;
2.13 describe the transformation
of the graph that occurs when coefficients and/or constants of the corresponding
linear equation are changed;
2.14 generalize numerical, geometric
patterns verbally and symbolically.
Student Performance Indicators:
At Level 1, the student is able to
· extend
a geometric pattern;
· extend
a numerical pattern;
· translate
a verbal expression into an algebraic expression;
· evaluate
a first degree algebraic expression given values for one or more variables;
· solve
one- and two-step linear equations using integers (with integral coefficients
and constants).
At Level 2, the student is able to
· select
the algebraic notation which generalizes the pattern represented by data in
a given table;
· translate
a verbal sentence into an algebraic equation;
· select
the graph that represents a given linear function expressed in slope-intercept
form;
· solve
multi-step linear equations (more than two steps, variables on only one side
of the equation);
· solve
multi-step linear equations (more than two steps, with variables on both sides
of the equation);
· solve
multi-step linear equations (more than two steps, with one set of parentheses
on each side of the equation);
· select
the linear graph that models the given real-world situation described in a
narrative (no data set given);
· select
the linear graph that models the given real-world situation described in a
tabular set of data;
· evaluate
an algebraic expression given values for one or more variables using grouping
symbols and/or exponents less than four;
· determine
the slope (rate of change) from the graph of a linear equation (no labeled
points);
· apply
the concept of rate of change to solve real-world problems;
· select
the appropriate graphical representation of a given linear inequality;
· select
the non-linear graph that models the given real-world situation or vice versa;
· identify
the graphical representation of the solution to a one variable inequality on
a number line;
· produce
an equation to describe the relationship between data sets;
· explore
patterns including Pascal's Triangle and a Fibonacci sequence;
· solve
a system of two linear equations using the graphing, elimination, and substitution
methods;
· defend
the selection of a method for solving a system of equations;
· represent
algebraic expressions and operations using manipulatives;
· model
the steps for solving simple linear equations using manipulatives;
· write
an equation that symbolically expresses a problem solving situation;
· justify
correct results of algebraic procedures;
· distinguish
between a function and other relationships.
At Level 3, the student is able to
· solve
multi-step linear inequalities in real-world situations;
· analyze "families
of functions" using technology;
· determine
the domain and/or range of a function represented by the graph of real-world
situations;
· select
the system of equations that could be used to solve a given real-world problem;
· find
the solution to a quadratic equation given in standard form (integral solutions
and a leading coefficient of one).
3.1 apply inductive
reasoning in making conjectures, then test conjectures and/or determine a counterexample;
3.2 apply properties
of special pairs of angles (e.g. supplementary, complementary, vertical, and
adjacent);
3.3 articulate
relationships of angles formed when parallel lines are cut by a transversal;
3.4 apply the
concept of slope to parallel and perpendicular lines;
3.5 solve real
world problems involving length, perimeter, and circumference;
3.6 apply the
properties of congruence and similarity to solve problems;
3.7 apply the
Pythagorean Theorem and the distance formula;
3.8 use appropriate
measurement techniques and tools in investigating properties of polygons (triangle
angle properties, angles of polygons, and triangle inequalities).
Student Performance Indicators:
At Level 1, the student is able to
· describe
real-world uses of geometric formulas and relationships;
· discuss
issues related to estimating areas of irregular-shaped figures for real-world
uses (i.e. fencing, painting, laying carpet, purchasing wallpaper or border);
· identify
ordered pairs in the coordinate plane.
At Level 2, the student is able to
· apply
the given Pythagorean Theorem to a real life problem illustrated by a diagram
(no radicals in answer);
· apply
proportion and the concepts of similar triangles to find the length of a missing
side of a triangle.
At Level 3, the student is able
to
· calculate
the distance between two points given the Pythagorean Theorem and the distance
formula;
· determine
the height of an object that is difficult to measure by using the properties
of similar triangles.
Sample Task:
Approximate the value of
pi (π) by looking at the relationship between the diameter and circumference
of various circular objects after measuring using a string or a tape measure.
Students research and write about how various geometric properties are used
in careers such as construction, drafting, and surveying.
Linkages:
Mathematics - Estimation, Measurement,
and Computation, Research, and the geometric applications in art.
Learning Expectations:
4.1 choose appropriate
techniques and tools to measure quantities in order to meet specifications
for precision and accuracy;
4.2 use concepts
of length, area, and volume to estimate and solve real- world problems;
4.3 apply measurement
concepts, relationships, and formulas in algebraic and geometric problem-solving
situations;
4.4 use estimation
to make predictions and determine reasonableness of results;
4.5 demonstrate
an understanding of rates and other derived and indirect measurements (e.g.
velocity, miles per hour, revolutions per second, and cost per unit).
Student Performance
Indicators:
At Level 1, the student is able to
· estimate
the area of irregular geometric figures on a grid;
· calculate
rates involving cost per unit to determine the best buy (no more than three
samples)’
· apply
the given formula to determine the area or perimeter of a rectangle.
At Level 2, the student is able to
· apply
the given formula to find the area of a circle, the circumference of a circle,
or the volume of a rectangular solid;
· defend
estimates of the perimeter and/or area of rectangles and triangles.
At Level 3, the student is able to
· select
the area representation for a given product of two one-variable binomials with
positive constants and coefficients.
· describe
how changes in the dimensions of figures affect perimeter, area, and volume.
Sample Task:
Place students in small groups
giving each group a different length of string. Have each group form a rectangle
with the string. Ask each group to measure the sides of their rectangle and
find its area. Using the string, direct each group to construct the rectangle
with the greatest possible area. Give each group the opportunity to justify
their solution.
Linkages:
Mathematics – Geometry. Use
formulas in Science. Discuss connections to drafting and carpentry. Connect
estimation and computation strategies to business and finance.
Standard 5.0: Data Analysis and Probability
Learning Expectations:
5.1 collect,
represent, and describe linear and nonlinear data sets developed from the real
world using appropriate technology;
5.2 choose,
construct, and analyze appropriate graphical representations for a data set;
5.3 interpret
data using the appropriate measure of central tendency for the data set;
5.4 determine
the measures of dispersion of a data set including range and quartiles;
5.5 apply basic
counting principles, introducing factorial notation; apply experimental and
theoretical probability with simulations where appropriate;
5.6 make predictions
from a linear data set using a line of best fit.
Student Performance Indicators:
At Level 1, the student is able to
· determine
the mean (average) of a given set of real-world data (no more than five two-digit
numbers);
· interpret
bar graphs representing real-world data;
· interpret
circle graphs (pie charts) representing real-world data.
At Level 2, the student is able to
· choose
the matching linear graph given a set of ordered pairs;
· make
a prediction from the graph of a real-world linear data set;
· determine
the median for a given set of real-world data (even number of data).
At Level 3, the student is able to
· apply
counting principles of permutations or combinations in real-world situations;
· debate
possible conclusions that can be supported by the data;
· make
predictions from real-world data using a line of best fit.
Sample Task:
Students research the age
of each Tennessee governor at the time of his/her inauguration. The students
organize their information and will determine which measure of central tendency
is the best description of the data. Students explain their decision.
Linkages:
Mathematics - Patterns, Functions,
and Algebraic Thinking. Analyze census data.
Research and discuss the careers that require the use of statistics such as
statistician, actuaries, and scientists.
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