| Standard:
1 Uses a variety of strategies in the problem-solving process
1-1
Understands how to break a complex problem into simpler
parts or use a similar problem type to solve a problem
1-2
Uses a variety of strategies to understand problem-solving
situations and processes (e.g., considers different strategies
and approaches to a problem, restates problem from various
perspectives)
1-3
Understands that there is no one right way to solve mathematical
problems but that different methods (e.g., working backward
from a solution, using a similar problem type, identifying
a pattern) have different advantages and disadvantages
1-4
Formulates a problem, determines information required
to solve the problem, chooses methods for obtaining this
information, and sets limits for acceptable solutions
1-5
Represents problem situations in and translates among
oral, written, concrete, pictorial, and graphical forms
1-6
Generalizes from a pattern of observations made in particular
cases, makes conjectures, and provides supporting arguments
for these conjectures (i.e., uses inductive reasoning)
1-7
Constructs informal logical arguments to justify reasoning
processes and methods of solutions to problems (i.e.,
uses informal deductive methods)
1-8 Understands the role of written symbols
in representing mathematical ideas and the use of precise
language in conjunction with the special symbols of mathematics
1-9
Uses a variety of reasoning processes (e.g., reasoning
from a counter example, using proportionality) to model
and to solve problems
Standard: 2 Understands and applies
basic and advanced properties of the concepts of numbers
2-1
Understands the relationships among equivalent number
representations (e.g., whole numbers, positive and negative
integers, fractions, ratios, decimals, percents, scientific
notation, exponentials) and the advantages and disadvantages
of each type of representation
2-2
Understands the characteristics and properties
(e.g., order relations, relative magnitude, base-ten place
values) of the set of rational numbers and its subsets
(e.g., whole numbers, fractions, decimals, integers)
2-3
Understands the role of positive and negative integers
in the number system
2-4
Understands basic number theory concepts (e.g., prime
and composite numbers, factors, multiples, odd and even
numbers, square numbers, roots, divisibility)
2-5
Understands the characteristics and uses of exponents
and scientific notation
2-6
Understands the structure of numeration systems that are
based on numbers other than 10 (e.g., base 60 for telling
time and measuring angles, Roman numerals for dates and
clock faces)
2-7
Understands the concepts of ratio, proportion,
and percent and the relationships among them
Standard: 3 Uses basic and advanced procedures
while performing the processes of computation
3-1
Adds, subtracts, multiplies, and divides whole numbers,
fractions, decimals, integers, and rational numbers
3-2
Understands exponentiation of rational numbers and root-extraction
(e.g., squares and square roots, cubes and cube roots)
3-3
Selects and uses appropriate computational methods (e.g.,
mental, paper and pencil, calculator, computer) for a
given situation
3-4
Understands the correct order of operations for performing
arithmetic computations
3-5
Uses proportional reasoning to solve mathematical and
real-world problems (e.g., involving equivalent fractions,
equal ratios, constant rate of change, proportions, percents)
3-6
Understands the properties of operations with rational
numbers (e.g., distributive property, commutative and
associative properties of addition and multiplication,
inverse properties, identity properties)
3-7
Knows when an estimate is more appropriate than an exact
answer for a variety of problem situations
3-8
Understands how different algorithms work for arithmetic
computations and operations
Standard: 4 Understands and applies
basic and advanced properties of the concepts of measurement
4-1
Understands the basic concept of rate as a measure (e.g.,
miles per gallon)
4-2
Solves problems involving perimeter (circumference) and
area of various shapes (e.g., parallelograms, triangles,
circles)
4-3
Understands the relationships among linear dimensions,
area, and volume and the corresponding uses of units,
square units, and cubic units of measure
4-4
Solves problems involving units of measurement and converts
answers to a larger or smaller unit within the same system
(i.e., standard or metric)
4-5
Understands the concepts of precision and significant
digits as they relate to measurement (e.g., how units
indicate precision)
4-6
Selects and uses appropriate units and tools, depending
on degree of accuracy required, to find measurements for
real-world problems
4-7
Understands formulas for finding measures (e.g., area,
volume, surface area)
4-8
Selects and uses appropriate estimation techniques (e.g.,
overestimate, underestimate, range of estimates) to solve
real-world problems
4-9
Understands procedures for basic indirect measurements
(e.g., using grids to estimate area of irregular figures)
Standard: 5 Understands and applies
basic and advanced properties of the concepts of geometry
5-1
Uses geometric methods (i.e., an unmarked straightedge
and a compass using an algorithm) to complete basic geometric
constructions (e.g., perpendicular bisector of a line
segment, angle bisector)
5-2
Understands the defining properties of three-dimensional
figures (e.g., a cube has edges with equal lengths, faces
with equal areas and congruent shapes, right angle corners)
5-3
Understands the defining properties of triangles (e.g.,
the sum of the measures of two sides of a triangle must
be greater than the measure of the third side)
5-4
Understands geometric transformations of figures (e.g.,
rotations, translations, dilations)
5-5
Understands the relationships between two- and three-dimensional
representations of a figure (e.g., scale drawings, blueprints,
planar cross sections)
5-6
Understands the mathematical concepts of similarity (e.g.,
scale, proportion, growth rates) and congruency
5-7
Understands the concept of tessellation (i.e., a repetitive
pattern of polygons that fit together with no gaps or
holes)
5-8
Understands the basic concept of the Pythagorean Theorem
Standard: 6 Understands and applies
basic and advanced concepts of statistics and data analysis
6-1
Understands basic characteristics of measures
of central tendency (i.e., mean, mode, median)
6-2
Understands basic characteristics of frequency and distribution
(e.g., range, varying rates of change, gaps, clusters)
6-3
Understands the basic concepts of center and dispersion
of data
6-4
Reads and interprets data in charts, tables, plots (e.g.,
stem-and-leaf, box-and-whiskers, scatter), and graphs
(e.g., bar, circle, line)
6-5
Uses data and statistical measures for a variety of purposes
(e.g., formulating hypotheses, making predictions, testing
conjectures)
6-6
Organizes and displays data using tables, graphs (e.g.,
line, circle, bar), frequency distributions, and plots
(e.g., stem-and-leaf, box-and-whiskers, scatter)
6-7
Understands faulty arguments, common errors, and misleading
presentations of data
6-8
Understands that the same set of data can be represented
using a variety of tables, graphs, and symbols and that
different modes of representation often convey different
messages (e.g., variation in scale can alter a visual
message)
6-9
Understands the basic concept of outliers
6-10
Understands basic concepts about how samples are chosen
(e.g., random samples, bias in sampling procedures, limited
samples, sampling error)
Standard: 7 Understands and applies
basic and advanced concepts of probability
7-1
Determines probability using mathematical/theoretical
models (e.g., table or tree diagram, area model, list,
counting procedures, sample space)
7-2
Determines probability using simulations or experiments
7-3
Understands how predictions are based on data and probabilities
(e.g., the difference between predictions based on theoretical
probability and experimental probability)
7-4
Understands that the measure of certainty in a given situation
depends on a number of factors (e.g., amount of data collected,
what is known about the situation, how current data are)
7-5
Understands the relationship between the numerical
expression of a probability (e.g., fraction, percentage,
odds) and the events that produce these numbers
Standard: 8 Understands and applies
basic and advanced properties of functions and algebra
8-1
Knows that an expression is a mathematical statement using
numbers and symbols to represent relationships and real-world
situations (e.g., equations and inequalities with or without
variables)
8-2
Understands that a variable can be used in many ways (e.g.,
as a placeholder for a specific unknown, such as x + 8
= 13; as a representative of a range of values, such as
4t + 7)
8-3
Understands various representations (e.g., tables, graphs,
verbal descriptions, algebraic expressions, Venn diagram)
of patterns and functions and the relationships among
them
8-4
Understands the basic concept of a function (i.e., functions
describe how changes in one quantity or variable result
in changes in another)
8-5
Solves linear equations using concrete, informal, and
formal methods (e.g., using properties, graphing ordered
pairs, using slope-intercept form)
8-6
Solves simple inequalities and non-linear equations
with rational number solutions, using concrete and informal
methods
8-7
Understands special values (e.g., minimum and maximum
values, x- and y-intercepts, slope, constant ratio or
difference) of patterns, relationships, and functions
8-8
Understands basic operations (e.g., combining like terms,
expanding, substituting for unknowns) on algebraic expressions
8-9
Uses the rectangular coordinate system to model and to
solve problems
8-10
Solves simple systems of equations graphically
8-11
Understands the properties of arithmetic and geometric
sequences (i.e., linear and exponential patterns)
Standard: 9 Understands the general
nature and uses of mathematics
9-1
Understands that mathematics has been helpful in practical
ways for many centuries
9-2
Understands that mathematicians often represent real things
using abstract ideas like numbers or lines; they then
work with these abstractions to learn about the things
they represent
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