Learning Outcomes

icon of a magnifying glass over a list

The content, assignments, and assessments for Calculus I are aligned to the following learning outcomes. A full list of course learning outcomes can be viewed here: Calculus I Learning Outcomes.

 Module 1: Evaluate the behaviors and graphs of functions

  • Manipulate basic functions
  • Interpret equations and graphs of the basic classes of functions
  • Identify trigonometric functions and their features
  • Analyze inverse functions
  • Examine exponential, logarithmic, and hyperbolic functions

Module 2: Identify and analyze the limits of a function

  • Relate the tangent and area problems to differential and integral calculus
  • Explain the difference between one-sided, two-sided, and infinite limits
  • Evaluate limits by using limit laws and other evaluation techniques
  • Discuss continuity at a point and continuity over an interval
  • Interpret the epsilon-delta definition of a limit

Module 3: Find the derivatives of various function types

  • Interpret the derivative of a function at a point
  • Express the derivative of a function as an equation or a graph
  • Apply the differentiation rules to determine a derivative
  • Explain rate of change and its applications
  • Find the derivatives of trigonometric functions
  • Apply the chain rule in a variety of situations
  • Calculate the derivatives of an inverse function and inverse trigonometric functions
  • Use implicit differentiation to find derivatives
  • Determine the derivative of an exponential or logarithmic function

Module 4: Examine the application of derivative calculation techniques

  • Explain related rates
  • Use linear approximation and differentials
  • Identify extrema and critical points of a function
  • Interpret the mean value theorem
  • Evaluate the graph of a function using the first and second derivative test
  • Identify functions with limits and asymptotes
  • Solve optimization problems
  • Describe how L’Hôpital’s Rule is used to evaluate limits
  • Explain Newton’s Method as an iterative process to approximate
  • Identify the antiderivative

Module 5: Use basic integration techniques to calculate area

  • Apply summation rules
  • Interpret definite integrals
  • Explain the Fundamental Theorem of Calculus
  • Use the net change theorem
  • Apply substitution to indefinite and definite integrals
  • Integrate functions involving exponential and logarithmic functions
  • Integrate functions resulting in inverse trigonometric functions
  • Approximate integrals when the antiderivative is impossible to calculate

Module 6: Apply integrals to geometric application, physical application, and modeling problems

  • Calculate the areas of curved regions by using integration methods
  • Find the volume of a solid of revolution using various methods
  • Compare different integration methods for determining volume
  • Calculate the arc length of a curve and the surface area of a solid of revolution
  • Quantify mass, density, work, force, and pressure using integration
  • Determine the center of mass in various dimensions
  • Apply integration and derivatives to exponential and natural logarithmic functions
  • Apply the exponential growth model to explain real world concepts
  • Use integrals and derivatives to evaluate hyperbolic functions