Pre-Calculus
Course description:
Precalculus is an advanced mathematics course that uses meaningful
problems and appropriate technologies to build upon previously learned mathematical
concepts to develop the underpinnings of calculus.
Learning Expectations:
The student will:
- 1.1 select and
use appropriate algebraic functions to model real-world situations;
- 1.2 select and
use appropriate techniques from data analysis to model real-world phenomena.
Student Performance Indicators:
- model
real-world phenomena using techniques of data analysis;
- recognize
and apply mathematical models of linear, quadratic, exponential, logarithmic,
and trigonometric functions;
- use
scatterplot residuals, and/or correlation coefficients to determine whether
a model is appropriate;
- apply
equations and graphs of conic sections to model real-world phenomena.
- use
models when appropriate to draw conclusions or make predictions.
Standard 2.0: Algebraic Functions
Students will extend the concepts of function from earlier
courses to a wider variety of functions and their graphs and real-world applications.
Learning Expectations:
- 2.1 represent
a variety of functions graphically;
- 2.2 use a variety
of methods to analyze and interpret functions;
- 2.3 determine
the slope and equations of lines tangent to curves;
- 2.4 apply functions
in problem situations.
Student Performance Indicators:
- sketch
the graphs of the basic functions (linear, quadratic, cubic, square root, absolute
value, reciprocal, trigonometric, exponential, logarithmic, and greatest integer);
- graph
transformations and combinations of transformations for all basic functions;
- analyze
functions, such as by decomposing into simpler functions;
- determine
if a function is even, odd, or neither;
- use
an appropriate technology to solve inequalities;
- demonstrate
an understanding of the concept of the limit of a function;
- apply
the limit of a function to find the slope of a line tangent to a curve;
- write
equations of tangents and normals to conic sections;
- apply
limits to develop the concept of continuity and identify intervals of increase
and decrease;
- locate
critical points on the graphs of polynomial functions and determine if
each critical point is a minimum, a maximum, or a point of inflection;
- determine
an equation of a rational function from a written description.
- define
and use the logarithmic function as the inverse of the exponential function;
- sketch
the graphs of exponential and logarithmic functions;
- solve
exponential and logarithmic equations modeling real-world problems (e.g.
growth and decay).
Standard 3.0: Trigonometric Functions
- 3.1 apply trigonometry
concepts and applications to model and solve problems;
- 3.2 use trigonometric
concepts to represent, apply, and operate with complex numbers;
- 3.3 solve trigonometric
equations and inequalities algebraically or graphically;
- 3.4 interpret
transformations of trigonometric functions.
Student Performance Indicators:
- define
six circular functions;
- sketch
graphs of the six trigonometric functions involving period change, amplitude
change, phase shift, and/or vertical shift;
- use
trigonometric functions to model periodic phenomena;
- use
graphs to develop and verify trigonometric identities;
- find
values of inverse trigonometric functions, applying appropriate domain
and range restrictions;
- solve
trigonometric equations and inequalities either algebraically or using
graphing technology.
- derive
the Law of Sines and the Law of Cosines and apply them to solve problems
involving triangles and vectors;
- derive
and apply the formulas for the area of a triangle and the sector of a circle;
- understand
the relationship between measurements in radians and degrees;
- apply
radian measures in problems related to linear and angular velocity;
- understand
and apply vectors to solve real world problems;
- represent
complex numbers in both rectangular and polar form;
- apply
the trigonometric form of complex number in calculations;
- prove
and apply DeMoivre's Theorem to find roots and powers of complex numbers.
Students will develop the concept of limit by examining
infinite sequences and series.
Learning Expectations:
- 4.1 represent
sequences and series;
- 4.2 determine,
when possible, the sums of infinite series.
- demonstrate
an understanding of sequences by representing them recursively and explicitly;
- use
sigma notation to represent a series;
- determine
whether a given series converges or diverges;
- find
the sum of an infinite series that converge;
- find
the sum of an infinite geometric series;
- use
the Binomial Theorem to expand binomials.
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