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+ or - |
STANDARD 4.1 (NUMBER AND NUMERICAL OPERATIONS) ALL STUDENTS WILL
DEVELOP NUMBER SENSE AND WILL PERFORM STANDARD NUMERICAL OPERATIONS AND
ESTIMATIONS ON ALL TYPES OF NUMBERS IN A VARIETY OF WAYS. |
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A.
Number Sense |
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Building upon
knowledge and skills gained in preceding grades, by the end of Grade 12,
students will: |
| |
1.
Extend
understanding of the number system to all real numbers. |
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2.
Compare and order rational and irrational numbers. |
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3.
Develop
conjectures and informal proofs of properties of number systems and sets
of numbers. |
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B.
Numerical Operations |
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Building upon
knowledge and skills gained in preceding grades, by the end of Grade 12,
students will: |
| |
1.
Extend
understanding and use of operations to real numbers and algebraic
procedures. |
| |
2.
Develop,
apply, and explain methods for solving problems involving rational and
negative exponents. |
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3.
Perform
operations on matrices.
·
Addition and
subtraction
·
Scalar
multiplication |
| |
4.
Understand
and apply the laws of exponents to simplify expressions involving
numbers raised to power |
| |
C.
Estimation |
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Building upon
knowledge and skills gained in preceding grades, by the end of Grade 12,
students will: |
| |
1.
Recognize
the limitations of estimation, assess the amount of error resulting from
estimation, and determine whether the error is within acceptable
tolerance limits. |
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+ or - |
STANDARD 4.2 (GEOMETRY AND MEASUREMENT) ALL STUDENTS WILL
DEVELOP SPATIAL SENSE AND THE ABILITY TO USE GEOMETRIC PROPERTIES,
RELATIONSHIPS, AND MEASUREMENT TO MODEL, DESCRIBE AND ANALYZE PHENOMENA. |
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A.
Geometric Properties |
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Building upon
knowledge and skills gained in preceding grades, by the end of Grade 12,
students will: |
| |
1.
Use
geometric models to represent real-world situations and objects and to
solve problems using those models (e.g., use Pythagorean Theorem to
decide whether an object can fit through a doorway). |
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2.
Draw
perspective views of 3D objects on isometric dot paper, given 2D
representations (e.g., nets or projective views). |
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3.
Apply the
properties of geometric shapes.
·
Parallel
lines – transversal, alternate interior angles, corresponding angles
·
Triangles
a.
Conditions for congruence
b.
Segment joining midpoints of two sides is parallel to and half the
length of the third side
c.
Triangle Inequality
·
Minimal
conditions for a shape to be a special quadrilateral
·
Circles –
arcs, central and inscribed angles, chords, tangents
·
Self-similarity |
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4.
Use
reasoning and some form of proof to verify or refute conjectures and
theorems.
·
Verification
or refutation of proposed proofs
·
Simple
proofs involving congruent triangles
·
Counterexamples to incorrect conjectures |
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B.
Transforming Shapes |
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Building
upon knowledge and skills gained in preceding grades, by the end of
Grade 12, students will: |
| |
1.
Determine,
describe, and draw the effect of a transformation, or a sequence of
transformations, on a geometric or algebraic object, and, conversely,
determine whether and how one object can be transformed to another by a
transformation or a sequence of transformations. |
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2.
Recognize
three-dimensional figures obtained through transformations of
two-dimensional figures (e.g., cone as rotating an isosceles triangle
about an altitude), using software as an aid to visualization. |
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3.
Determine
whether two or more given shapes can be used to generate a tessellation. |
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4.
Generate and
analyze iterative geometric patterns.
·
Fractals
(e.g., Sierpinski’s Triangle)
·
Patterns in
areas and perimeters of self-similar figures
·
Outcome of
extending iterative process indefinitely |
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C.
Coordinate Geometry |
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Building upon
knowledge and skills gained in preceding grades, by the end of Grade 12,
students will: |
| |
1.
Use
coordinate geometry to represent and verify properties of lines.
·
Distance
between two points
·
Midpoint and
slope of a line segment
·
Finding the
intersection of two lines
·
Lines with
the same slope are parallel
·
Lines that
are perpendicular have slopes whose product is –1 |
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2.
Show
position and represent motion in the coordinate plane using vectors.
·
Addition and
subtraction of vectors |
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D.
Units of Measurement |
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Building upon
knowledge and skills gained in preceding grades, by the end of Grade 12,
students will: |
| |
1.
Understand
and use the concept of significant digits. |
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2.
Choose
appropriate tools and techniques to achieve the specified degree of
precision and error needed in a situation.
·
Degree of
accuracy of a given measurement tool
·
Finding the
interval in which a computed measure (e.g., area or volume) lies, given
the degree of precision of linear measurements |
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E.
Measuring Geometric Objects |
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Building upon
knowledge and skills gained in preceding grades, by the end of Grade 12,
students will: |
| |
1.
Use
techniques of indirect measurement to represent and solve problems.
·
Similar
triangles
·
Pythagorean
theorem
·
Right
triangle trigonometry (sine, cosine, tangent) |
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2.
Use a
variety of strategies to determine perimeter and area of plane figures
and surface area and volume of 3D figures.
·
Approximation of area using grids of different sizes
·
Finding
which shape has minimal (or maximal) area, perimeter, volume, or surface
area under given conditions using graphing calculators, dynamic
geometric software, and/or spreadsheets
·
Estimation
of area, perimeter, volume, and surface area |
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+ or - |
STANDARD
4.3 (PATTERNS AND ALGEBRA) ALL STUDENTS WILL REPRESENT AND
ANALYZE RELATIONSHIPS AMONG VARIABLE QUANTITIES AND SOLVE PROBLEMS
INVOLVING PATTERNS, FUNCTIONS, AND ALGEBRAIC CONCEPTS AND PROCESSES.
|
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A.
Patterns |
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Building upon knowledge and skills gained in
preceding grades, by the end of Grade 12, students will: |
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1.
Use models and algebraic formulas to represent and analyze
sequences and series.
·
Explicit formulas for nth terms
·
Sums of finite arithmetic series
·
Sums of finite and infinite geometric series |
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2.
Develop an
informal notion of limit. |
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3.
Use inductive reasoning to form generalizations. |
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B.
Functions and Relationships |
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Building upon knowledge and skills gained in
preceding grades, by the end of Grade 12, students will: |
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1.
Understand relations and functions and select, convert
flexibly among, and use various representations for them, including
equations or inequalities, tables, and graphs. |
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2.
Analyze and
explain the general properties and behavior of functions of one
variable, using appropriate graphing technologies.
·
Slope of a
line or curve
·
Domain and
range
·
Intercepts
·
Continuity
·
Maximum/minimum
·
Estimating
roots of equations
·
Intersecting
points as solutions of systems of equations
·
Rates of
change |
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3.
Understand
and perform transformations on commonly-used functions.
·
Translations, reflections, dilations
·
Effects on
linear and quadratic graphs of parameter changes in equations
·
Using
graphing calculators or computers for more complex functions |
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4.
Understand
and compare the properties of classes of functions, including
exponential, polynomial, rational, and trigonometric functions.
·
Linear vs.
non-linear
·
Symmetry
·
Increasing/decreasing on an interval |
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C.
Modeling |
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Building upon knowledge and skills gained in
preceding grades, by the end of Grade 12, students will: |
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1.
Use
functions to model real-world phenomena and solve problems that involve
varying quantities.
·
Linear,
quadratic, exponential, periodic (sine and cosine), and step functions
(e.g., price of mailing a first-class letter over the past 200 years)
·
Direct and
inverse variation
·
Absolute
value
·
Expressions,
equations and inequalities
·
Same
function can model variety of phenomena
·
Growth/decay
and change in the natural world
·
Applications
in mathematics, biology, and economics (including compound interest) |
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2.
Analyze and
describe how a change in an independent variable leads to change in a
dependent one. |
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3.
Convert
recursive formulas to linear or exponential functions (e.g., Tower of
Hanoi and doubling). |
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D.
Procedures |
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Building upon knowledge and skills gained in
preceding grades, by the end of Grade 12, students will: |
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1.
Evaluate and
simplify expressions.
·
Add and
subtract polynomials
·
Multiply a
polynomial by a monomial or binomial
·
Divide a
polynomial by a monomial |
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2.
Select and
use appropriate methods to solve equations and inequalities.
·
Linear
equations – algebraically
·
Quadratic
equations – factoring (when the coefficient of x2 is 1) and
using the quadratic formula
·
All types of
equations using graphing, computer, and graphing calculator techniques |
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3.
Judge the
meaning, utility, and reasonableness of the results of symbol
manipulations, including those carried out by technology. |
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+ or - |
STANDARD 4.4
(DATA ANALYSIS, PROBABILITY, AND DISCRETE MATHEMATICS) ALL
STUDENTS WILL DEVELOP AN UNDERSTANDING OF THE CONCEPTS AND TECHNIQUES OF
DATA ANALYSIS, PROBABILITY, AND DISCRETE MATHEMATICS, AND WILL USE THEM
TO MODEL SITUATIONS, SOLVE PROBLEMS, AND ANALYZE AND DRAW APPROPRIATE
INFERENCES FROM DATA. |
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A.
Data Analysis |
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Building upon
knowledge and skills gained in preceding grades, by the end of Grade 12,
students will: |
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1.
Use surveys
and sampling techniques to generate data and draw conclusions about
large groups.
·
Advantages/disadvantages of sample selection methods (e.g., convenience
sampling, responses to survey, random sampling) |
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2.
Evaluate the
use of data in real-world contexts.
·
Accuracy and
reasonableness of conclusions drawn
·
Bias in
conclusions drawn (e.g., influence of how data is displayed)
·
Statistical
claims based on sampling |
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3.
Design a
statistical experiment, conduct the experiment, and interpret and
communicate the outcome. |
| |
4.
Estimate or
determine lines of best fit (or curves of best fit if appropriate) with
technology, and use them to interpolate within the range of the data. |
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5.
Analyze data
using technology, and use statistical terminology to describe
conclusions.
·
Measures of
dispersion: variance, standard deviation, outliers
·
Correlation
coefficient
·
Normal
distribution (e.g., approximately 95% of the sample lies between two
standard deviations on either side of the mean) |
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B.
Probability |
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Building upon
knowledge and skills gained in preceding grades, by the end of Grade 12,
students will: |
| |
1.
Calculate the expected value of a probability-based game,
given the probabilities and payoffs of the various outcomes, and
determine whether the game is fair. |
| |
2.
Use concepts
and formulas of area to calculate geometric probabilities. |
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3.
Model
situations involving probability with simulations (using spinners, dice,
calculators and computers) and theoretical models, and solve problems
using these models. |
| |
4.
Determine
probabilities in complex situations.
·
Conditional
events
·
Complementary events
·
Dependent
and independent events |
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5.
Estimate
probabilities and make predictions based on experimental and theoretical
probabilities. |
| |
6.
Understand
and use the “law of large numbers” (that experimental results tend to
approach theoretical probabilities after a large number of trials). |
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C.
Discrete Mathematics—Systematic Listing and Counting |
| |
Building upon
knowledge and skills gained in preceding grades, by the end of Grade 12,
students will: |
| |
1.
Calculate
combinations with replacement (e.g., the number of possible ways of
tossing a coin 5 times and getting 3 heads) and without replacement
(e.g., number of possible delegations of 3 out of 23 students). |
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2.
Apply the multiplication rule of counting in complex
situations, recognize the difference between situations with replacement
and without replacement, and recognize the difference between ordered
and unordered counting situations. |
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3.
Justify solutions to counting problems. |
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4.
Recognize and explain relationships involving combinations
and Pascal’s Triangle, and apply those methods to situations involving
probability. |
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D.
Discrete Mathematics—Vertex-Edge Graphs and Algorithms |
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Building upon
knowledge and skills gained in preceding grades, by the end of Grade 12,
students will: |
| |
1.
Use vertex-edge graphs and algorithmic thinking to
represent and solve practical problems.
·
Circuits that include every edge in a graph
·
Circuits that include every vertex in a graph
·
Scheduling problems (e.g., when project meetings should be
scheduled to avoid conflicts) using graph coloring
·
Applications to science (e.g., who-eats-whom graphs,
genetic trees, molecular structures) |
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2.
Explore strategies for making fair decisions.
·
Combining individual preferences into a group decision
(e.g., determining winner of an election or selection process)
·
Determining how many Student Council representatives each
class (9th, 10th, 11th, and 12th
grade) gets when the classes have unequal sizes (apportionment) |
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+ or - |
STANDARD
4.5 (MATHEMATICAL PROCESSES) ALL STUDENTS WILL USE MATHEMATICAL
PROCESSES OF PROBLEM SOLVING, COMMUNICATION, CONNECTIONS, REASONING,
REPRESENTATIONS, AND TECHNOLOGY TO SOLVE PROBLEMS AND COMMUNICATE
MATHEMATICAL IDEAS. |
| |
A.
Problem Solving |
| |
At each grade
level, with respect to content appropriate for that grade level,
students will: |
| |
1.
Learn
mathematics through problem solving, inquiry, and discovery. |
| |
2.
Solve
problems that arise in mathematics and in other contexts (cf. workplace
readiness standard 8.3).
·
Open-ended
problems
·
Non-routine
problems
·
Problems
with multiple solutions
·
Problems
that can be solved in several ways |
| |
3.
Select and
apply a variety of appropriate problem-solving strategies (e.g., “try a
simpler problem” or “make a diagram”) to solve problems. |
| |
4.
Pose
problems of various types and levels of difficulty. |
| |
5.
Monitor
their progress and reflect on the process of their problem solving
activity. |
| |
B.
Communication |
| |
At each grade level, with respect to content appropriate for that
grade level, students will: |
| |
1.
Use
communication to organize and clarify their mathematical thinking.
·
Reading and
writing
·
Discussion,
listening, and questioning |
| |
2.
Communicate
their mathematical thinking coherently and clearly to peers, teachers,
and others, both orally and in writing. |
| |
3.
Analyze and
evaluate the mathematical thinking and strategies of others. |
| |
4.
Use the
language of mathematics to express mathematical ideas precisely. |
| |
C.
Connections |
| |
At each grade level, with respect to content appropriate for that
grade level, students will: |
| |
1.
Recognize
recurring themes across mathematical domains (e.g., patterns in number,
algebra, and geometry). |
| |
2.
Use
connections among mathematical ideas to explain concepts (e.g., two
linear equations have a unique solution because the lines they represent
intersect at a single point). |
| |
3.
Recognize
that mathematics is used in a variety of contexts outside of
mathematics. |
| |
4.
Apply
mathematics in practical situations and in other disciplines. |
| |
5.
Trace the
development of mathematical concepts over time and across cultures (cf.
world languages and social studies standards). |
| |
6.
Understand
how mathematical ideas interconnect and build on one another to produce
a coherent whole. |
| |
D.
Reasoning |
| |
At each grade level, with respect to content appropriate for that
grade level, students will: |
| |
1.
Recognize
that mathematical facts, procedures, and claims must be justified. |
| |
2.
Use
reasoning to support their mathematical conclusions and problem
solutions. |
| |
3.
Select and
use various types of reasoning and methods of proof. |
| |
4.
Rely on
reasoning, rather than answer keys, teachers, or peers, to check the
correctness of their problem solutions. |
| |
5.
Make and
investigate mathematical conjectures.
·
Counterexamples as a means of disproving conjectures
·
Verifying
conjectures using informal reasoning or proofs. |
| |
6.
Evaluate
examples of mathematical reasoning and determine whether they are valid. |
| |
E.
Representations |
| |
At each grade level, with respect to content appropriate for that
grade level, students will: |
| |
1.
Create and
use representations to organize, record, and communicate mathematical
ideas.
·
Concrete
representations (e.g., base-ten blocks or algebra tiles)
·
Pictorial
representations (e.g., diagrams, charts, or tables)
·
Symbolic
representations (e.g., a formula)
·
Graphical
representations (e.g., a line graph) |
| |
2.
Select,
apply, and translate among mathematical representations to solve
problems. |
| |
3.
Use
representations to model and interpret physical, social, and
mathematical phenomena. |
| |
F.
Technology |
| |
At each grade level, with respect to content appropriate for that
grade level, students will: |
| |
|