Calculus theory: Difference between revisions
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## [[Defining the derivative]] | ## [[Defining the derivative]] | ||
## [[Partial derivatives and direction]] | ## [[Partial derivatives and direction]] | ||
## [[Defining the gradient]] | ## [[Defining the gradient]] (the discussion about perpendicularity is still confusing. df/dx and df/dy mean that there is no Z component, after all, the gradient is a 2D vector for a function of two variables.) | ||
## [[Conditions for differentiability for a single variable]] | ## [[Conditions for differentiability for a single variable]] | ||
## [[Conditions for differentiability for many variables]] | ## [[Conditions for differentiability for many variables]] |
Revision as of 02:59, 10 April 2022
- Functions
- Mistakes regarding functions
- Defining a function
- Operations with functions
- Visualising the domain of a function
- Graph of single variable functions
- Transforming the graph of functions
- Linear algebra and deforming graphs of functions
- Guessing the graphs of single variable functions
- Guessing the graphs of multivariable functions
- Level curves and level surfaces
- Polar coordinates and parametric curves
- Limits and continuity
- Mistakes regarding limits
- Informal limit and continuity of a single variable function
- Formal limit and continuity of a single variable function
- Limit and continuity of a multivariable function
- Properties of limits
- Limits at or with infinity
- Theorems covering limits and continuity of functions
- Informal discussion of the Euler's constant
- Differentiation and derivatives
- Mistakes regarding derivatives
- Defining the derivative
- Partial derivatives and direction
- Defining the gradient (the discussion about perpendicularity is still confusing. df/dx and df/dy mean that there is no Z component, after all, the gradient is a 2D vector for a function of two variables.)
- Conditions for differentiability for a single variable
- Conditions for differentiability for many variables
- Linear approximation for one variable
- Linear approximation for two variables
- Derivative formulas
- Derivative of logarithm and exponential
- Derivative of trigonometric functions
- Derivative of inverse functions
- Chain rule for single variable functions
- Chain rule for multivariable functions
- Implicit differentiation
- Applications of differentiation
- Increasing and decreasing functions
- Extreme values of a function
- Finding extreme values of a single variable function
- Finding critical points of a single variable function
- l'Hospital rule
- Finding extreme values of a multivariable function
- Finding critical points of a multivariable function
- Lagrange's multipliers
- Integration and total change