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The standards for grades eight through twelve are organized differently
from those for kindergarten through grade seven. In this section
strands are not used for organizational purposes as they are in
the elementary grades because the mathematics studied in grades
eight through twelve falls naturally under discipline headings:
algebra, geometry, and so forth. Many schools teach this material
in traditional courses; others teach it in an integrated fashion.
To allow local educational agencies and teachers flexibility in
teaching the material, the standards for grades eight through
twelve do not mandate that a particular discipline be initiated
and completed in a single grade. The core content of these subjects
must be covered; students are expected to achieve the standards
however these subjects are sequenced.
Standards are provided for algebra I, geometry, algebra II, trigonometry,
mathematical analysis, linear algebra, probability and statistics,
Advanced Placement probability and statistics, and calculus. Many
of the more advanced subjects are not taught in every middle school
or high school. Moreover, schools and districts have different
ways of combining the subject matter in these various disciplines.
For example, many schools combine some trigonometry, mathematical
analysis, and linear algebra to form a pre calculus course. Some
districts prefer offering trigonometry content with algebra II.
Table 1, "Mathematics Disciplines, by Grade Level,"
reflects typical grade-level groupings of these disciplines in
both integrated and traditional curricula. The lightly shaded
region reflects the minimum requirement for mastery by all students.
The dark shaded region depicts content that is typically considered
elective but that should also be mastered by students who complete
the other disciplines in the lower grade levels and continue the
study of mathematics.
Table 1
Mathematics Disciplines, by Grade Level
(see above paragraph for explanation of
table below)
| Discipline |
Grade
Eight |
Grade
Nine |
Grade
Ten |
Grade
Eleven |
Grade
Twelve |
Algebra I |
Required |
Required |
Required |
Required |
Required |
Geometry |
Required |
Required |
Required |
Required |
Required |
Algebra II |
Required |
Required |
Required |
Required |
Required |
Probability and Statistics |
Required |
Required |
Required |
Required |
Required |
Trigonometry |
n/a |
n/a |
Elective |
Elective |
Elective |
Linear Algebra |
n/a |
n/a |
Elective |
Elective |
Elective |
Mathematical Analysis |
n/a |
n/a |
Elective |
Elective |
Elective |
Advanced Placement Probability and Statistics |
n/a |
n/a |
n/a |
Elective |
Elective |
Calculus |
n/a |
n/a |
n/a |
Elective |
Elective |
Many other combinations of these advanced subjects into courses
are possible. What is described in this section are standards
for the academic content by discipline; this document does not
endorse a particular choice of structure for courses or a particular
method of teaching the mathematical content.
When students delve deeply into mathematics, they gain not only
conceptual understanding of mathematical principles but also knowledge
of, and experience with, pure reasoning. One of the most important
goals of mathematics is to teach students logical reasoning. The
logical reasoning inherent in the study of mathematics allows
for applications to a broad range of situations in which answers
to practical problems can be found with accuracy.
By grade eight, students' mathematical sensitivity should be
sharpened. Students need to start perceiving logical subtleties
and appreciate the need for sound mathematical arguments before
making conclusions. As students progress in the study of mathematics,
they learn to distinguish between inductive and deductive reasoning;
understand the meaning of logical implication; test general assertions;
realize that one counterexample is enough to show that a general
assertion is false; understand conceptually that although a general
assertion is true in a few cases, it is not true in all cases;
distinguish between something being proven and a mere plausibility
argument; and identify logical errors in chains of reasoning.
Mathematical reasoning and conceptual understanding are not separate
from content; they are intrinsic to the mathematical discipline
students master at more advanced levels.
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