Complete Guide to Calculus Foundations for Data Science
10h 58mIntermediate2025-04-21
Authors

Megan Silvey
Course details
This course covers the essentials of calculus, focusing on limits, derivatives, and integrals.. With practical explanations and examples, instructor Megan Silvey guides you through the core concepts and skills required to work with functions, limits, derivatives, continuity, and integrals—just like a traditional university-level course. Along the way, develop a thorough understanding of limits, derivatives, and integrals and how to successfully perform calculations with each. This course is an ideal fit for data scientists and data professionals seeking to advance their knowledge of the tools used in their profession and develop a deeper understanding of the mathematical science that drives the world of data.
Learning objectives
Evaluate limits of various functions, including polynomial, rational, trigonometric, logarithmic, and exponential functions, using multiple techniques such as direct substitution, factoring, and the squeeze theorem.
Demonstrate proficiency in finding the derivatives of common functions and applying differentiation rules—including the product, quotient, chain, and power rules—to efficiently calculate derivatives.
Analyze the behavior of functions using derivatives, including finding extreme values, applying the Mean Value Theorem, solving optimization and related rates problems, and using techniques such as linear approximations, L'Hôpital's Rule, and Newton's Method.
Master integration techniques, such as substitution, integration by parts, and partial fraction decomposition, to evaluate both indefinite and definite integrals of various function types.
Apply integral calculus to solve real-world problems, including calculating areas between curves, volumes of solids, arc lengths, and solving problems related to work, energy, and probability.
Learning objectives
Evaluate limits of various functions, including polynomial, rational, trigonometric, logarithmic, and exponential functions, using multiple techniques such as direct substitution, factoring, and the squeeze theorem.
Demonstrate proficiency in finding the derivatives of common functions and applying differentiation rules—including the product, quotient, chain, and power rules—to efficiently calculate derivatives.
Analyze the behavior of functions using derivatives, including finding extreme values, applying the Mean Value Theorem, solving optimization and related rates problems, and using techniques such as linear approximations, L'Hôpital's Rule, and Newton's Method.
Master integration techniques, such as substitution, integration by parts, and partial fraction decomposition, to evaluate both indefinite and definite integrals of various function types.
Apply integral calculus to solve real-world problems, including calculating areas between curves, volumes of solids, arc lengths, and solving problems related to work, energy, and probability.
Skills covered
Data Science FoundationsData AnalysisData ScienceBusiness Analysis and StrategyBusiness Software and ToolsOne-Off
Concepts
Introduction
- Introduction to calculus
- What you should know
Functions
- What is calculus
- What is a function
- Types of functions
- Polynomial and rational functions
- Inverse functions
- Trigonometric functions
- Exponential and logarithmic functions
Limits
- Tangent lines, velocity, and area
- What is a limit
- One-sided limits
- Limit properties
- Precise definition of a limit
- Infinite limits
Evaluating Limits
- Methods to calculate limits
- Calculate limits using properties, part 1
- Calculate limits using properties, part 2
- Calculate limits using factoring
- Calculate the limits of polynomial and rational functions
- Calculate the limits of exponential and logarithmic functions
- Calculate limits using the squeeze theorem
- Calculate the limits of trigonometric functions
- When limits fail to exist
Continuity
- What is continuity
- Continuity at a point
- Continuity on an interval
- What is discontinuity
- Composite function theorem
- Intermediate value theorem
Derivatives Introduction
- What is a derivative
- Rate of change
- Calculating derivatives using limits
- Tangent lines and slopes
- Continuity with derivatives
- Computing with differentiation
Differentiation Rules
- Differentiation rules
- Constant rules
- Sum and difference rules
- Power rule
- Product rule
- Quotient rule
- Chain rule
Common Derivatives
- Polynomial and rational derivatives
- Trigonometric derivatives
- Exponential derivatives
- Logarithmic derivatives
- Inverse derivatives
- Inverse trigonometric derivatives
- Hyperbolic derivatives
Complex Derivatives
- Second-order derivatives
- Third-order derivatives
- Fourth-order derivatives
- Implicit differentiation
- Logarithmic differentiation
Derivative Applications
- Related rates
- Linear approximations
- Differentials
- Extreme values
- Mean value theorem
- Shape of a graph
- Optimization problems
- L'H pital's rule
- Newton's method
Integrals Introduction
- Antiderivatives
- What is an integral
- Area under the curve
- Summation vs. integration
- Indefinite integrals
- Definite integrals
- Fundamental theorem of calculus
Integration Rules
- Integration rules
- Zero function
- Constant rules
- Sum and difference rules
- Power rule
- Additivity over intervals
Integration Techniques
- Integration techniques
- Integration by substitution
- Integration by parts
- Partial fraction decomposition
- Integration by trigonometric substitution
- Improper integrals
Common Integrals
- Polynomial and rational integrals
- Trigonometric integrals
- Exponential integrals
- Logarithmic integrals
- Inverse integrals
- Inverse trigonometric integrals
- Hyperbolic integrals
Complex Integrals
- Numerical integration
- Complex function integrals
- Cauchy's theorem
- Residue theorem
- Double integrals
- Triple integrals
Integral Applications
- Area between curves
- Volume
- Average value of a function
- Arc length
- Surface area
- Force, work, and energy
- Masses and moments
- Probability
Conclusion
- Next steps