Media Summary: Explains how the graph of a multivariable function is analogous to the graph of a function of one variable. Shows how a ... Visually illustrates the typical ways in which limits are used: Divisions by zero, defining derivatives, defining integrals and ... Illustrates the derivative as the formal concept behind instantaneous velocities, tangent lines and general instantaneous rates of ...

Concise Modular Calculus 68 97 - Detailed Analysis & Overview

Explains how the graph of a multivariable function is analogous to the graph of a function of one variable. Shows how a ... Visually illustrates the typical ways in which limits are used: Divisions by zero, defining derivatives, defining integrals and ... Illustrates the derivative as the formal concept behind instantaneous velocities, tangent lines and general instantaneous rates of ... Introduces three-dimensional coordinate systems. Shows how to represent points and figures in three dimensions using ... Justifies how a derivative can be found implicitly when we cannot solve for y. Computes tangent lines via implicit differentiation ... Explains limits at a point. Shows graphical, numerical and symbolic examples. Emphasizes computation that does not rely on ...

(1/4 on Differentiation of Multivariable Functions) Explains partial derivatives as derivatives of a function's traces. Notes that partial ... Derives the scalar product as the appropriate tool to compute the work done by a constant force along a straight line of travel. Explains how to compute probabilities and events with the exponential distribution. All videos and slides for single variable ... Explains how a parametric surface can be viewed as made up of parametric curves that are induced by a grid on the domain.

Photo Gallery

Concise Modular Calculus [68/97]: Arc Length, Curvature, Components of Acceleration
Concise Modular Calculus [69/97]: Multivariable Functions (1/6 on Surfaces in 3-D Space)
Concise Modular Calculus [2/97]: Why Are Limits Important? (1/6 on Limits and Continuity)
Concise Modular Calculus [8/97]: Why Do We Need Derivatives (1/5 on Derivatives)
Concise Modular Calculus [60/97] Points & Figures in 3-D Space (1/4 on Vector Algebra)
Concise Modular Calculus [1/97]: Why Do We Need Calculus
Concise Modular Calculus [19/97]: Implicit Differentiation (7/8 on Differentiation Formulas)
Concise Modular Calculus [3/97]: Limits at a Point (2/6 on Limits and Continuity)
Concise Modular Calculus [81/97]: Partial Derivatives
Concise Modular Calculus [64/97]: Vector-Valued Functions/Parametric Equations
Concise Modular Calculus [62/97]: The Scalar Product (3/4 on Vector Algebra)
Concise Modular Calculus [46/97]: Exponential Distribution (3b/5 on Continuous Distributions)
View Detailed Profile
Concise Modular Calculus [68/97]: Arc Length, Curvature, Components of Acceleration

Concise Modular Calculus [68/97]: Arc Length, Curvature, Components of Acceleration

5/5 on

Concise Modular Calculus [69/97]: Multivariable Functions (1/6 on Surfaces in 3-D Space)

Concise Modular Calculus [69/97]: Multivariable Functions (1/6 on Surfaces in 3-D Space)

Explains how the graph of a multivariable function is analogous to the graph of a function of one variable. Shows how a ...

Concise Modular Calculus [2/97]: Why Are Limits Important? (1/6 on Limits and Continuity)

Concise Modular Calculus [2/97]: Why Are Limits Important? (1/6 on Limits and Continuity)

Visually illustrates the typical ways in which limits are used: Divisions by zero, defining derivatives, defining integrals and ...

Concise Modular Calculus [8/97]: Why Do We Need Derivatives (1/5 on Derivatives)

Concise Modular Calculus [8/97]: Why Do We Need Derivatives (1/5 on Derivatives)

Illustrates the derivative as the formal concept behind instantaneous velocities, tangent lines and general instantaneous rates of ...

Concise Modular Calculus [60/97] Points & Figures in 3-D Space (1/4 on Vector Algebra)

Concise Modular Calculus [60/97] Points & Figures in 3-D Space (1/4 on Vector Algebra)

Introduces three-dimensional coordinate systems. Shows how to represent points and figures in three dimensions using ...

Concise Modular Calculus [1/97]: Why Do We Need Calculus

Concise Modular Calculus [1/97]: Why Do We Need Calculus

Explains what

Concise Modular Calculus [19/97]: Implicit Differentiation (7/8 on Differentiation Formulas)

Concise Modular Calculus [19/97]: Implicit Differentiation (7/8 on Differentiation Formulas)

Justifies how a derivative can be found implicitly when we cannot solve for y. Computes tangent lines via implicit differentiation ...

Concise Modular Calculus [3/97]: Limits at a Point (2/6 on Limits and Continuity)

Concise Modular Calculus [3/97]: Limits at a Point (2/6 on Limits and Continuity)

Explains limits at a point. Shows graphical, numerical and symbolic examples. Emphasizes computation that does not rely on ...

Concise Modular Calculus [81/97]: Partial Derivatives

Concise Modular Calculus [81/97]: Partial Derivatives

(1/4 on Differentiation of Multivariable Functions) Explains partial derivatives as derivatives of a function's traces. Notes that partial ...

Concise Modular Calculus [64/97]: Vector-Valued Functions/Parametric Equations

Concise Modular Calculus [64/97]: Vector-Valued Functions/Parametric Equations

1/5 on

Concise Modular Calculus [62/97]: The Scalar Product (3/4 on Vector Algebra)

Concise Modular Calculus [62/97]: The Scalar Product (3/4 on Vector Algebra)

Derives the scalar product as the appropriate tool to compute the work done by a constant force along a straight line of travel.

Concise Modular Calculus [46/97]: Exponential Distribution (3b/5 on Continuous Distributions)

Concise Modular Calculus [46/97]: Exponential Distribution (3b/5 on Continuous Distributions)

Explains how to compute probabilities and events with the exponential distribution. All videos and slides for single variable ...

Concise Modular Calculus [70/97]: Parametric Surfaces (2/6 on surfaces in 3-D Space)

Concise Modular Calculus [70/97]: Parametric Surfaces (2/6 on surfaces in 3-D Space)

Explains how a parametric surface can be viewed as made up of parametric curves that are induced by a grid on the domain.