A higher-order derivative is the derivative of a derivative. If f'(x) gives the first derivative, then f''(x) is the second derivative, f'''(x) is the third derivative, and so on. Higher-order derivatives describe repeated rates of change. For example, if position is a function of time, then the first derivative is velocity and the second derivative is acceleration. In general, higher-order derivatives help us study how change itself is changing, which becomes very important in motion problems, graph analysis, and differential equations later in calculus.
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Lesson PreviewLesson 6 of 6 in this unit
3.6 Calculating Higher-Order Derivatives
Part of Differentiation: Composite, Implicit, and Inverse Functions in AP® Calculus BC. Read the opening section, then create a free account for the full interactive lesson, practice, and progress tracking.
Computing higher-order derivatives means differentiating repeatedly, one step at a time, while continuing to use the appropriate rules at each stage. Students must also become comfortable with notation such as f''(x), y'', and It is important to stay organized, since later derivatives can grow more algebraically complicated even when the original function is simple. This lesson shows that differentiation is not a one-time process, but something that can be iterated to reveal deeper information about a function’s behavior.
In this unit
6 lessons
- 3.1The Chain RulePreview lesson
- 3.2Implicit DifferentiationPreview lesson
- 3.3Differentiating Inverse FunctionsPreview lesson
- 3.4Differentiating Inverse Trigonometric FunctionsPreview lesson
- 3.5Selecting Procedures for Calculating DerivativesPreview lesson
- 3.6Calculating Higher-Order DerivativesThis lesson
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