MATH 1141: Calculus I
Students study differential calculus for functions of one variable, with applications emphasizing the physical sciences. Topics include calculation and interpretation of limits and derivatives; curve sketching; optimization and related-rate problems; l'Hospital's rule; linear approximation and Newton’s method.
Learning outcomes
- Evaluate a given limit, or determine that the limit does not exist, using appropriate graphical, algebraic or numerical methods. Algebraic methods include simplifying, factoring, rationalizing a numerator or denominator, and using L’Hospital’s Rule.
- Determine the points of discontinuity of a function defined by a graph or formula.
- Use the Intermediate Value Theorem to prove that a given equation has a solution in a given interval.
- State the definition of the derivative, and apply it to find derivatives of simple functions.
- Use differentiation rules to find derivatives of power, exponential, logarithmic, trigonometric and inverse trigonometric functions.
- Apply the Product Rule, Quotient Rule and Chain Rule when appropriate.
- Interpret the derivative of a function as the slope of a tangent line to the graph of the function, and use this idea to obtain derivatives graphically.
- Find derivatives of functions defined implicitly. Use implicit differentiation to differentiate inverse functions. Compute derivatives by logarithmic differentiation. Find the tangent line at a point on a curve defined parametrically.
- Compute the linearization of a function at a given point in its domain. Relate differentials to linear approximation. Use linear approximations and differentials to make estimates. Compute higher order approximations (Taylor polynomials) and use them as estimates.
- Find approximate solutions of equations numerically by Newton’s method.
- State the Mean Value Theorem.
- Find the critical numbers for a function defined by a formula. Find the absolute maximum and minimum values of a function on a closed, bounded interval.
- Use the first derivative of a function to determine the intervals on which it is increasing or decreasing and its local maximum and minimum values. Use the second derivative of a function to determine the intervals on which it is concave up or concave down and to find its inflection points.
- Determine horizontal and vertical asymptotes when they exist. Use all of this information to graph a function without the help of a graphing device.
- Interpret derivatives as rates of change. Use derivatives to compute rates and solve problems involving related rates.
- Solve optimization problems by using derivatives to find extreme values of appropriate objective functions.
Course topics
Unit 1: Limits
Unit 2: Derivatives
Unit 3: Curve Sketching
Unit 4: Applications of Derivatives
Required text and materials
There is no required textbook to purchase. All materials will be provided within the course.
Additional requirements
A good-quality scientific calculator is required.
Assessments
Please be aware that should your course have a final exam, you are responsible for the fee to the online proctoring service, ProctorU, or to the in-person approved Testing Centre. Please contact exams@tru.ca with any questions about this.
To successfully complete this course, students must achieve a passing grade of 50% or higher on the overall course and 50% or higher on the mandatory Final Exam.
Note: The final exam for this course is only available as a paper exam and must be taken in person at an approved Testing Centre. Please email exams@tru.ca with any questions.
| Assignment 1: Limits | 13% |
| Assignment 2: Derivatives | 14% |
| Assignment 3: Curve Sketching | 14% |
| Assignment 4: Applications of Derivatives | 14% |
| WeBWorK Questions | 5% |
| Mandatory Final Exam (Units 1–4) | 40% |
| Total | 100% |
Open Learning Faculty Member Information
An Open Learning Faculty Member is available to assist students. Students will receive the necessary contact information at the start of the course.
