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MAT 233 - Calculus I
- Define the term "Function".
- Introduce Function Notation.
- Classify functions (i.e. constant, liner, quadratic, cubic, polynomial, rational, algebraic, and transcendental).
- Review concepts of function operations, composition in particular.
- Define even and odd functions.
- Review the definition of the 6 trigonometric functions, the Pythagorean identities, and the sum or difference of two angles.
- Review the graphs of the 6 trigonometric functions.
- Provide an intuitive feeling for the concept of a limit.
- Show some limits that do not exist.
- Define a limit.
- Provide a strategy for finding limits using direct substitution and limits using direct substitution and limit properties.
- Discuss the limits of the trigonometric functions and the two special limits:

- Define the term "Continuity", at a point and on an open interval.
- Introduce one-sided limits.
- Discuss the properties of continuity.
- Explain the Intermediate Value Theorem.
- Provide a common sense approach to infinite limits.
- Use infinite limits to find vertical asymptotes.
- Introduce the derivative using the tangent line problem.
- Set up the 4-step process to the definition of derivative.
- Realize that differentiability implies continuity.
- Discuss the derivative in terms of velocity and acceleration.
- Establish the differentiation rules for constants, Powers, constant multiples, sums and differences, and the sine and cosine functions.
- Prove and demonstrate the differentiation rules of products, quotients, secants, tangents, cosecants, and cotangents.
- Establish the Chain and Power rules for the composition of functions.
- Apply the Chain Rule to trigonometric functions.
- Summarize the ruled for differentiation and use in combination with one another.
- Distinguish between explicit and implicit forms of an equation.
- Apply the technique of implicit differentiation.
- Find the 2nd derivative implicitly.
- Use implicit differentiation to do related rate problem.
- Define extrema and relative extrema of function.
- Establish guidelines for finding extrema on a closed interval.
- Explain Rolle's Theorem and the Mean Value Theorem.
- Use the concepts of increasing and decreasing functions to establish the 1st Derivative Test for Extrema.
- Define concavity and points of inflection.
- Use the 2nd derivative test.
- find limits at infinity and horizontal asymptotes.
- Provide a summary of curve sketching for rational (Slant asymptotes), radical, polynomial, and trigonometric functions.
- Apply extrema of functions to the solution of problems from physics, engineering, biology, and business topics of marginals, demand, and elasticity.
- Review the idea of inverse function and its existence.
- Introduce exponential functions with their graphs.
- Find the derivatives for au and eu and show some applications dealing with compound interest and biological growth and decay.
- Introduce the logarithmic functions as inverse of the exponentials.
- Find the derivatives of the logarithmic functions and use the logarithmic properties as an aid to differentiation.
- Use logarithmic differentiation.
- Review inverse trigonometric functions.
- Develop the derivatives of the inverse trigonometric functions.
- Review all of the basic integration rules as antiderivatives.
- Establish the motion of "antiderivative" and its notation.
- Develop the basic integration rules as antiderivatives.
- Develop substitution as a technique of integration (change of variables).
- Define sigma notation and the limit of a sequence.
- Use the properties and formulas of summation.
- Find the area of a region as an approximation, using upper and lower sums.
- Find the area of a plane region by the limit definition.
- Define the definite integral using Riemann sums.
- Corrolate the definite integral and the area of a region in a plane.
- Use the Fundamental Theorem of Calculus to evaluate definite integrals.
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