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Although the 2005 mathematics standard is different in structure from the previous standard documents, there are many similarities as indicated in the degree of alignment shown in the crosswalk. By listing performance indicators for both process and content strands, the 2005 standard places as much emphasis on instruction as on curriculum. The performance indicators for the process strands stress instruction – how students learn and how teachers teach mathematics - and what mathematics is as a discipline. On the other hand, the performance indicators for the content strands stress curriculum – what students need to know and be able to do. The crosswalk included in this document primarily compares the content performance indicators of the 2005 Content Strands with those of the 1999 Core Curriculum. This in no way should be interpreted to mean that the process strands are of less importance than the content strands. They are both equally important. The performance indicators for the process strands were not included in the crosswalk because they basically did not have a counterpart in Standard 3 of the 1999 Core Curriculum. They are one of the major additions to the 2005 mathematics standard.
The following performance indicators from Math A and Math B have no counterpart in the content strands of the 2005 Core Curriculum at the high school level because they are included in the K-8 portion of the 2005 mathematics standard. This does not mean that they are not to be addressed at the high school level.
Math A
Number and Numeration
Operations
Modeling/Multiple Representation
4C Use transformations in the coordinate plane
Math B
Number and Numeration
2B Recognize the order of real numbers
2C Apply the properties of the real numbers to various subsets of numbers
The following performance indicators from Math B have no direct counterpart in the content strands of the 2005 Core Curriculum at the high school level but are stressed within the five process strands.
Problem Solving
4A Represent problem situations symbolically
by using algebraic expressions, sequences,
tree diagrams, geometric figures,
and graphs
Representation
4C Choose appropriate representations to facilitate the solving of a problem
Connections
7G Model real-world situations with the appropriate function
The following performance indicators from Math A and Math B do not have any direct counterpart in the 2005 Standard. This does not mean, however, that they are not addressed in the 2005 Standard. There is a comment for each performance indicator with an explanation as to how it is addressed in the 2005 Standard.
Math A
5F Apply proportions to scale drawings and direct variation
Although not specifically stated, students would be expected to make these
applications
of proportions during their study of proportions in Math 7, Math
8, Algebra, and
Geometry.
5I Use geometric relationships in relevant
measurement problems involving geometric
concepts
Although not specifically stated,
students should continually use geometric relationships
as they are involved in
the measurement and geometry strands of the standard.
7D Model real-world situations with the appropriate function
Students should
continually model real-world situations with the appropriate function
while
making connections in the Connections strand.
Math B
2D Recognize the hierarchy of the complex number system
Teachers should continually have students look at the development of our number system and see that each set of numbers is a subset of other sets; i.e., our number system develops in the following way: counting numbers, whole numbers, integers, rational numbers, irrational numbers, complex numbers and that each time a new type of number is introduced it has all the previous numbers as subsets. This is implied in the 2005 standard, but not specifically stated as a performance indicator.
Modeling/Multiple Representation
4D Develop meaning for basic conic sections
This is alluded to in G.G.1-G.G.7
(equations of conic sections) with basic meanings
implied. Student activities should engage them in the
basic meanings.
4G Represent graphically the sum and difference of two complex numbers
A2.N.9 requires operations with complex numbers, but
the graphic sum and difference
of two complex numbers is not specifically
indicated. Although not specifically
stated, it
is expected that teachers would have students model the arithmetic
operations
graphically.
4H Model quadratic inequalities both algebraically and graphically
This performance indicator is a pre-requisite for
the performance indicators in the new
standard that deal with the solution of
inequalities, but is not directly addressed.
4I Model the composition of
transformations
Could be covered in the representation strand, but it is not directly stated there.
4K Use polynomial, trigonometric, and
exponential functions to model real-world
relationships
Students are expected to use
polynomial, trigonometric, and exponential functions, but
the standard does not
mention application in real-world settings. Applications in real-
world settings should be a part of the Connections strand, but applications
should be
natural, not contrived.
4N Use graphing utilities to create and explore geometric and algebraic models
Technology tools are implied to be
fully integrated into the mathematics curriculum as
described by the new
standard. Hence, the direct statement
of this performance
indicator is unnecessary.
Measurement
5B Understand error in measurement and its consequence on subsequent calculations
Addressed somewhat in performance
indicator A.M.3. Relative error in
measuring
square and cubic units when error occurs in linear measure. No mention is made of
consequence on
subsequent calculations. Teachers would
be expected to discuss this in
the application of the performance indicator.
Patterns/Functions
7C Translate among the verbal descriptions,
tables, equations, and graphic forms of
functions
Implied in several performance indicators, but never
directly addressed. Teachers
should continually show multiple representations throughout the entire
curriculum.
7O Apply the ideas of symmetry in sketching and analyzing graphs of functions
Implied, but not specifically
stated. Teachers would have students do
this as they are
engaged in activities involving the sketching and analyzing of
graphs of functions.