Канал: AbrahamPhysics

Conservation of Linear Momentum: Example

Conservation of Linear Momentum: Example

Impulse and Momentum in Two Dimensions

Impulse and Momentum in Two Dimensions

A speed version of a pulley problem (demonstration)

A speed version of a pulley problem (demonstration)

Potential Energy Curves

Potential Energy Curves

Gravitational Potential Energy Curve

Gravitational Potential Energy Curve

Conservation of Energy with Non-Conservative Forces: Example

Conservation of Energy with Non-Conservative Forces: Example

Conservation of Energy with Non-Conservative Forces

Conservation of Energy with Non-Conservative Forces

Conservation of Mechanical Energy: Coordinate Systems

Conservation of Mechanical Energy: Coordinate Systems

Conservation of Mechanical Energy Example

Conservation of Mechanical Energy Example

Conservation of Mechanical Energy

Conservation of Mechanical Energy

General Potential Energy Functions in One Dimension

General Potential Energy Functions in One Dimension

Gravitational Potential Energy Function

Gravitational Potential Energy Function

Gravitational Potential Energy

Gravitational Potential Energy

Work and Kinetic Energy in Two DImensions

Work and Kinetic Energy in Two DImensions

Work in Two and Three Dimensions

Work in Two and Three Dimensions

Newton's Third Law: Two Sliding Blocks

Newton's Third Law: Two Sliding Blocks

Newton's Third Law in Two Dimensions: One block falling on another

Newton's Third Law in Two Dimensions: One block falling on another

Newton's Second Law in Two Dimensions: More Crate Moving

Newton's Second Law in Two Dimensions: More Crate Moving

Newton's Second Law in Two Dimensions: Keeping a Block from Falling Gong Straight

Newton's Second Law in Two Dimensions: Keeping a Block from Falling Gong Straight

Static Friction Model

Static Friction Model

A Kinetic Friction Model

A Kinetic Friction Model

Newton's Second Law in Two Dimensions: Pulling Out a Stuck Car

Newton's Second Law in Two Dimensions: Pulling Out a Stuck Car

Newton's Second Law in Two Dimensions: Sliding on an Incline

Newton's Second Law in Two Dimensions: Sliding on an Incline

Newton's Second Law in Two Dimensions: Hanging from Two Cables

Newton's Second Law in Two Dimensions: Hanging from Two Cables

Newton's Second Law in Two Dimensions: Hanging Mass

Newton's Second Law in Two Dimensions: Hanging Mass

Newton's Second Law in Two Dimensions: on an Incline

Newton's Second Law in Two Dimensions: on an Incline

Newton's Second Law in Two Dimensions: Moving a Crate

Newton's Second Law in Two Dimensions: Moving a Crate

The Normal Force Model

The Normal Force Model

Range Equation

Range Equation

Projectile Motion

Projectile Motion

Projectile Motion Problem

Projectile Motion Problem

Constant Acceleration in Two Dimensions: Throw Down an Incline

Constant Acceleration in Two Dimensions: Throw Down an Incline

Constant Acceleration in Two Dimensions

Constant Acceleration in Two Dimensions

Motion on an Incline Plane: turning 2D problems into 1D

Motion on an Incline Plane: turning 2D problems into 1D

Constant Acceleration in Two Dimensions: Deflector Plates

Constant Acceleration in Two Dimensions: Deflector Plates

Constant Acceleration in Two Dimensions: Jumping Ravines

Constant Acceleration in Two Dimensions: Jumping Ravines

Constant Acceleration in Two Dimensions (meh, error at end, card links to new one)

Constant Acceleration in Two Dimensions (meh, error at end, card links to new one)

Constant Acceleration in 1D: Example 3

Constant Acceleration in 1D: Example 3

Constant Acceleration in 1D: Example 2

Constant Acceleration in 1D: Example 2

Constant Acceleration in 1D: Example 1

Constant Acceleration in 1D: Example 1

Constant Acceleration in 1D with Two Objects

Constant Acceleration in 1D with Two Objects

Constant Acceleration in 1D in Two Stages

Constant Acceleration in 1D in Two Stages

Using Graphical Methods

Using Graphical Methods

Acceleration to Position in Two Dimensions

Acceleration to Position in Two Dimensions

Proof of Law of Cosines using Dot Product

Proof of Law of Cosines using Dot Product

Acceleration Function in One Dimension

Acceleration Function in One Dimension

Constant Acceleration: One Object, One Section

Constant Acceleration: One Object, One Section

Derivation of the Constant Acceleration Equations

Derivation of the Constant Acceleration Equations

Position and Velocity Functions for Constant Acceleration

Position and Velocity Functions for Constant Acceleration

Your eyes do not act like a camera

Your eyes do not act like a camera

A Great Question about Two Dimensional Motion

A Great Question about Two Dimensional Motion

Acceleration in Two and Three Dimensions

Acceleration in Two and Three Dimensions

Velocity in Two and Three Dimensions

Velocity in Two and Three Dimensions

Position in Two and Three Dimensions

Position in Two and Three Dimensions

The Cross Product

The Cross Product

The Dot Product

The Dot Product

Vector Arithmetic in Component Form

Vector Arithmetic in Component Form

Converting Vectors to and from Component Form

Converting Vectors to and from Component Form

Vectors: Component Form

Vectors: Component Form

Unit Vectors

Unit Vectors

Vector Arithmetic in Ordered Set Notation

Vector Arithmetic in Ordered Set Notation

Switching between Ordered Set and Descriptive Notation

Switching between Ordered Set and Descriptive Notation

Ordered Set Notation for Vectors: Introduction

Ordered Set Notation for Vectors: Introduction

General Problem Solving Strategy: Check

General Problem Solving Strategy: Check

General Problem Solving Strategy: Solve

General Problem Solving Strategy: Solve

General Problem Solving Strategy: Brainstorm

General Problem Solving Strategy: Brainstorm

General Problem Solving Strategy: Visualize

General Problem Solving Strategy: Visualize

General Problem Solving Strategy: Introduction

General Problem Solving Strategy: Introduction

Motion Diagrams

Motion Diagrams

Three Dimensional Cartesian Coordinate System

Three Dimensional Cartesian Coordinate System

Two Dimensional Cartesian Coordinate Systems

Two Dimensional Cartesian Coordinate Systems

Impulse and Momentum 1D Examples

Impulse and Momentum 1D Examples

Impulse and Momentum in One Dimension

Impulse and Momentum in One Dimension

Momentum in One Dimension

Momentum in One Dimension

Work-Kinetic Energy Theorem: problem 2

Work-Kinetic Energy Theorem: problem 2

Work-Kinetic Energy Theorem: Problem 1

Work-Kinetic Energy Theorem: Problem 1

Kinetic Energy

Kinetic Energy

Work-Kinetic Energy Theorem in One Dimension

Work-Kinetic Energy Theorem in One Dimension

Work in One Dimension with Time-Varying Forces

Work in One Dimension with Time-Varying Forces

Work in One Dimension: problem 1

Work in One Dimension: problem 1

Work in One Dimension with a Variable Force

Work in One Dimension with a Variable Force

Work in One Dimension with Constant Force

Work in One Dimension with Constant Force

An Introduction to Work in One Dimension

An Introduction to Work in One Dimension

Newton's Third Law in 1D: problem 2

Newton's Third Law in 1D: problem 2

Newton's Third Law: problem 1

Newton's Third Law: problem 1

Newton's Third Law: problem 3

Newton's Third Law: problem 3

Newton's Third Law: Two Blocks

Newton's Third Law: Two Blocks

Newton's Third Law and Finding Force Pairs

Newton's Third Law and Finding Force Pairs

Newton's Second Law in 1D problem 3

Newton's Second Law in 1D problem 3

Newton's Second Law in 1D problem 2

Newton's Second Law in 1D problem 2

Newton's Second Law in 1D: problem 1

Newton's Second Law in 1D: problem 1

More Massless Pulleys and Newton's Second Law Examples

More Massless Pulleys and Newton's Second Law Examples

Massless Pulleys and Newton's Second Law Examples

Massless Pulleys and Newton's Second Law Examples

Newton's Second Law in 1D Example (part 2)

Newton's Second Law in 1D Example (part 2)

Newton's Second Law in 1D Example (part 1)

Newton's Second Law in 1D Example (part 1)

Newton's Second Law in One Dimension

Newton's Second Law in One Dimension

Forces Cause Accelerations

Forces Cause Accelerations

A Basic Model of the Contact Force

A Basic Model of the Contact Force

A model of gravity near the surface of the earth

A model of gravity near the surface of the earth

The Tension Model

The Tension Model

One Force on One Object in One Dimension

One Force on One Object in One Dimension

What is a Force?

What is a Force?

Finding Forces

Finding Forces

Solving Uniform Motion Problems

Solving Uniform Motion Problems

Uniform Motion

Uniform Motion

From Acceleration to Position: Constant Acceleration

From Acceleration to Position: Constant Acceleration

Acceleration to Position: Problem 1

Acceleration to Position: Problem 1

The Acceleration Function: Worked Example

The Acceleration Function: Worked Example

A Model of Falling Things

A Model of Falling Things

Average Speed and Average Velocity

Average Speed and Average Velocity

Graphical Representation of Position and Velocity

Graphical Representation of Position and Velocity

The Velocity Function in One Dimension

The Velocity Function in One Dimension

The Position Function: Worked Example

The Position Function: Worked Example

Distance And Displacment in One Dimension

Distance And Displacment in One Dimension

Position Function Terminology

Position Function Terminology

The Position Function In One Dimension

The Position Function In One Dimension

Vectors in One Dimension

Vectors in One Dimension

Adding Vectors Graphically Worked Example

Adding Vectors Graphically Worked Example

Vectors: Multiplication by a Scalar and Subtraction in Descriptive Notation

Vectors: Multiplication by a Scalar and Subtraction in Descriptive Notation

Adding Vectors Graphically Examples

Adding Vectors Graphically Examples

Adding Vectors Graphically

Adding Vectors Graphically

What is a Vector?

What is a Vector?

Representations Worked Example

Representations Worked Example

Representations

Representations

Proportional Reasoning Worked Example

Proportional Reasoning Worked Example

Proportional Reasoning: Inversely Proportional

Proportional Reasoning: Inversely Proportional

Proportional Reasoning: Non-Linear Systems

Proportional Reasoning: Non-Linear Systems

Proportional Reasoning: Linearly Proportional

Proportional Reasoning: Linearly Proportional

One Dimensional Coordinate System Worked Example 2

One Dimensional Coordinate System Worked Example 2

One Dimensional Coordinate System Worked Example

One Dimensional Coordinate System Worked Example

One Dimensional Coordinate Systems: Choices

One Dimensional Coordinate Systems: Choices

Introduction to 1D Coordinate Systems

Introduction to 1D Coordinate Systems

Significant Figures in Computations

Significant Figures in Computations

How to Find the Number of Significant Figures

How to Find the Number of Significant Figures

Unit Conversions Problem 3

Unit Conversions Problem 3

Unit Conversions Problem 2

Unit Conversions Problem 2

Unit Conversions Problem 1

Unit Conversions Problem 1

Unit Conversions with Powers of Units

Unit Conversions with Powers of Units

Unit Conversions

Unit Conversions

Introduction to Units

Introduction to Units

Unit Conversions Problem

Unit Conversions Problem

Unit Converstions - Powers

Unit Converstions - Powers

Unit Conversions

Unit Conversions

Dimensional Analysis Problem 2

Dimensional Analysis Problem 2

Dimensional Analysis Problem 3

Dimensional Analysis Problem 3

Dimensions Problem 1

Dimensions Problem 1

Dimensional Analysis

Dimensional Analysis

Dimensions of a Physical Quantity

Dimensions of a Physical Quantity

Three Rules for Manipulating Dimensions

Three Rules for Manipulating Dimensions

Constant Acceleration Equations Part 2 (old, see card for new version)

Constant Acceleration Equations Part 2 (old, see card for new version)

Constant Acceleration Equations Part 1 (old, see card for new version)

Constant Acceleration Equations Part 1 (old, see card for new version)

Position Differences

Position Differences

Velocity Differences

Velocity Differences

Acceleration Function 1D (old, retired, error at end: card gives link to new one)

Acceleration Function 1D (old, retired, error at end: card gives link to new one)

Constant Acceleration Functions

Constant Acceleration Functions

Acceleration to Position

Acceleration to Position

Acceleration, Velocity and Position Graphs

Acceleration, Velocity and Position Graphs

Average Speed and Average Velocity (old)

Average Speed and Average Velocity (old)

Graphical Representation of Velocity and Position (old)

Graphical Representation of Velocity and Position (old)

Velocity Function in 1D (old)

Velocity Function in 1D (old)

Distance and Displacement in 1D (old)

Distance and Displacement in 1D (old)

Position Function Terminology (Old)

Position Function Terminology (Old)

Position Function in 1D

Position Function in 1D

How Far a Conducting Bar Moves in a Magnetic Field

How Far a Conducting Bar Moves in a Magnetic Field

Mutual Induction

Mutual Induction

Toriodal Solenoid

Toriodal Solenoid

EMF in Loop from Decaying Magnetic Field

EMF in Loop from Decaying Magnetic Field

Magnetic Field from Two Wires Off Axis

Magnetic Field from Two Wires Off Axis

Magnetic Field from Infinite Sheet of Current

Magnetic Field from Infinite Sheet of Current

Kirchoff Laws - Example 2

Kirchoff Laws - Example 2

Kirchhoff Laws - Example 1

Kirchhoff Laws - Example 1

Magnetic Force on Current Carrying Wire

Magnetic Force on Current Carrying Wire

Rail Gun example

Rail Gun example

Capacitors in Series and Parallel

Capacitors in Series and Parallel

Linked Capacitors

Linked Capacitors

A Series of Ohms Law Problems (Part 3)

A Series of Ohms Law Problems (Part 3)

A Series of Ohms Law Problems (Part2)

A Series of Ohms Law Problems (Part2)

A Series of Ohms Law Problems (Part1)

A Series of Ohms Law Problems (Part1)

Current in a Wire

Current in a Wire

Voltmeter Reading Above Charged Cylinder

Voltmeter Reading Above Charged Cylinder

Electric Field ofCharged Ring Using Potential

Electric Field ofCharged Ring Using Potential

Potential of Charged Ring

Potential of Charged Ring

Integrating Electric Flux Through a Cube

Integrating Electric Flux Through a Cube

Gauss's Law with Spherical Symmetry (Part 3)

Gauss's Law with Spherical Symmetry (Part 3)

Gauss's Law with Spherical Symmetry (Part 2)

Gauss's Law with Spherical Symmetry (Part 2)

Gauss's Law with Spherical Symmetry (Part 1)

Gauss's Law with Spherical Symmetry (Part 1)

Charges Hanging in an Electric Field

Charges Hanging in an Electric Field

Line of Charge through Direct Integration

Line of Charge through Direct Integration

Coulomb's Law 2D - example 1

Coulomb's Law 2D - example 1

Coulomb's Law 1D - Part 2

Coulomb's Law 1D - Part 2

Coulomb's Law 1D - Part1

Coulomb's Law 1D - Part1

Work on an Elevator

Work on an Elevator

Work of a 1D Variable Force - example

Work of a 1D Variable Force - example

The Dragged Suitcase

The Dragged Suitcase

Pushing Block Up Incline

Pushing Block Up Incline

Free Body Diagram 2

Free Body Diagram 2

Free Body Diagram 1

Free Body Diagram 1

Stopping Distance 2

Stopping Distance 2

Stopping Distance 1

Stopping Distance 1

Vector Example 2

Vector Example 2