Канал: Phreestyle Physics

A Brief Tour of the Night Sky - Mnemonics, Myths, and Mysteries

A Brief Tour of the Night Sky - Mnemonics, Myths, and Mysteries

Position vs Time Graphing lab

Position vs Time Graphing lab

0.300 kg hanging mass

0.300 kg hanging mass

0.400 kg hanging mass

0.400 kg hanging mass

0.500 kg hanging mass

0.500 kg hanging mass

0.600 kg hanging mass

0.600 kg hanging mass

0.700 kg hanging mass

0.700 kg hanging mass

0.800 kg hanging mass

0.800 kg hanging mass

0.900 kg hanging mass

0.900 kg hanging mass

1.000 kg hanging mass

1.000 kg hanging mass

Finding Moment of Inertia Pre-lab

Finding Moment of Inertia Pre-lab

Intro to Rotation from Phyclips

Intro to Rotation from Phyclips

Problem: inclined ramp with friction, atwood machine and spring (conservation of mechanical energy)

Problem: inclined ramp with friction, atwood machine and spring (conservation of mechanical energy)

Phy 2.4 - Measurement Examples

Phy 2.4 - Measurement Examples

Phy 2.6 - Experimental Error: Random vs Systematic

Phy 2.6 - Experimental Error: Random vs Systematic

Phy 2.5 - Comparing Values Percent Difference vs Percent Error

Phy 2.5 - Comparing Values Percent Difference vs Percent Error

Phy 2.3 - Measuring With Proper Precision Using A Ruler

Phy 2.3 - Measuring With Proper Precision Using A Ruler

Phy 2.2 - Significant Figures and Their Meaning

Phy 2.2 - Significant Figures and Their Meaning

Phy 2.1 - Measurement Demonstration

Phy 2.1 - Measurement Demonstration

Problem: Terminal Velocity

Problem: Terminal Velocity

Phy 1.1 - Introduction To The Scientific Method

Phy 1.1 - Introduction To The Scientific Method

Phy 1.2 - The Train Game and Experimental Design

Phy 1.2 - The Train Game and Experimental Design

Problem: Banked turn with friction

Problem: Banked turn with friction

Problem: Apparent weight of mass going over hill

Problem: Apparent weight of mass going over hill

Determine the Speed of Sound using Resonance

Determine the Speed of Sound using Resonance

20 06 Ampere's Law with planar symmetry

20 06 Ampere's Law with planar symmetry

The Amazing Dr. Amos Lev

The Amazing Dr. Amos Lev

19.12 Magnetic Domains

19.12 Magnetic Domains

Isaac Smith the Man Not The Myth

Isaac Smith the Man Not The Myth

12.04 Transverse vs Longitudinal Waves

12.04 Transverse vs Longitudinal Waves

24.07 Conduction, Convection, or Radiation?

24.07 Conduction, Convection, or Radiation?

24.05 Convection

24.05 Convection

13.5 Linearization Example Problem

13.5 Linearization Example Problem

13.4 Linearization Pitfalls and Summary

13.4 Linearization Pitfalls and Summary

13.3 Finding g and more from Linearization of Pendulum Data

13.3 Finding g and more from Linearization of Pendulum Data

13.2 Introduction to Linearization

13.2 Introduction to Linearization

13.1 Mathematical Relationships in Physics

13.1 Mathematical Relationships in Physics

Mathematical Relationships In Physics

Mathematical Relationships In Physics

2.08 Atwood Machine (Hanging Masses and Pulley Problem) NEW

2.08 Atwood Machine (Hanging Masses and Pulley Problem) NEW

2.09 Solving an Atwood Machine as a Single System

2.09 Solving an Atwood Machine as a Single System

24.06 Radiation

24.06 Radiation

24.04 Conduction

24.04 Conduction

24.03 Energy Exchange In Ideal Gases

24.03 Energy Exchange In Ideal Gases

24.02 Temperature

24.02 Temperature

24.01 Internal Energy (Thermal Energy)

24.01 Internal Energy (Thermal Energy)

21.7 C only - Magnetic Flux next to wire

21.7 C only - Magnetic Flux next to wire

18.22 Another reduction example

18.22 Another reduction example

18.22 One more reduction example showing all calculations

18.22 One more reduction example showing all calculations

23.07 Time Dependent Current in RL Circuits

23.07 Time Dependent Current in RL Circuits

23.12 LC Circuit Resonance Frequency

23.12 LC Circuit Resonance Frequency

23.11 LC Circuits

23.11 LC Circuits

23.10 What is a transformer?

23.10 What is a transformer?

23.09 Energy Stored in an Inductor

23.09 Energy Stored in an Inductor

23.08 Derivation of RL discharge

23.08 Derivation of RL discharge

23.06 Derivation of Inductance of Coil

23.06 Derivation of Inductance of Coil

23.05 Proof that Inductor back EMF=-Ldidt

23.05 Proof that Inductor back EMF=-Ldidt

23.04 Ways of Looking at Inductance & its Units

23.04 Ways of Looking at Inductance & its Units

23.03 The Definition of Inductance L

23.03 The Definition of Inductance L

23.02 How does an Inductor Work

23.02 How does an Inductor Work

23.01 What is an Inductor

23.01 What is an Inductor

23.02 Definition of Inductance L

23.02 Definition of Inductance L

23.01 Self-Inductance

23.01 Self-Inductance

12b 07 Factors Affecting Speed of Sound

12b 07 Factors Affecting Speed of Sound

12b 08 Speed of Sound in Different Materials

12b 08 Speed of Sound in Different Materials

12b 09 The Doppler Effect

12b 09 The Doppler Effect

12b 06. Resonance In Single Open Ended Tubes

12b 06. Resonance In Single Open Ended Tubes

12b 04. Superposition of Sound

12b 04. Superposition of Sound

12b 05 Resonance in Double Open Ended Tubes

12b 05 Resonance in Double Open Ended Tubes

12b 03. Graphing Longitudinal Waves

12b 03. Graphing Longitudinal Waves

12b 02. Speaker & Strobe Light, Depicting Sound Waves

12b 02. Speaker & Strobe Light, Depicting Sound Waves

12b 01. Sound Fundamentals

12b 01. Sound Fundamentals

21.2 C only Calc version of Faradays Law

21.2 C only Calc version of Faradays Law

21.8 C only - Maxwell's Amazing Equations (and the Lorentz Force Law)

21.8 C only - Maxwell's Amazing Equations (and the Lorentz Force Law)

20.5 Gauss's Law in Magnetism

20.5 Gauss's Law in Magnetism

20.3 Maxwell's Addition to Ampere's Law

20.3 Maxwell's Addition to Ampere's Law

20.4 Magnetic Flux

20.4 Magnetic Flux

20.0 Biot-Savart Law

20.0 Biot-Savart Law

Wave Speed Lab Introduction

Wave Speed Lab Introduction

12.09 Harmonics

12.09 Harmonics

12.08 Standing Waves

12.08 Standing Waves

12.07 Superposition (Interference)

12.07 Superposition (Interference)

12.06 Reflection & Transmission-Changing Medium

12.06 Reflection & Transmission-Changing Medium

12.05 Wave Reflection-Fixed vs Free End

12.05 Wave Reflection-Fixed vs Free End

12.04 Transverse and Longitudinal waves

12.04 Transverse and Longitudinal waves

12.03 Master Equation for Waves

12.03 Master Equation for Waves

12.02 More Wave Concepts

12.02 More Wave Concepts

17.8 Electrical Power

17.8 Electrical Power

12.01 Amplitude, Forced Vibration, Resonance

12.01 Amplitude, Forced Vibration, Resonance

12.00 Waves Intro

12.00 Waves Intro

14.11 Gauss's Law Calculus Hints

14.11 Gauss's Law Calculus Hints

14.08 Electric Field due to Line of Charge

14.08 Electric Field due to Line of Charge

14.07 Using Gauss's Law - Field outside and INSIDE a charged sphere!

14.07 Using Gauss's Law - Field outside and INSIDE a charged sphere!

14.06 Using Gauss's Easy Example-E field due to point charge

14.06 Using Gauss's Easy Example-E field due to point charge

14.05 Rules for Setting Up A Gaussian Surface

14.05 Rules for Setting Up A Gaussian Surface

14.04 Intro to Gauss's Law

14.04 Intro to Gauss's Law

14.03 Flux through closed surface

14.03 Flux through closed surface

14.02 Electric Flux

14.02 Electric Flux

14.01 Volume Flux Analogy

14.01 Volume Flux Analogy

14.10 Conductors in E-stat Equilibrium pt 2

14.10 Conductors in E-stat Equilibrium pt 2

14.09 Conductors in Electrostatic Equilibrium

14.09 Conductors in Electrostatic Equilibrium

2.16 Acceleration as a Function of Time for Dropped Mass

2.16 Acceleration as a Function of Time for Dropped Mass

2.17 The Time Constant Tau

2.17 The Time Constant Tau

2.15 Velocity as Function of Time for Dropped Mass

2.15 Velocity as Function of Time for Dropped Mass

2.14 Terminal Velocity

2.14 Terminal Velocity

2.13 Motion with Resistive Forces Proportional to Velocity

2.13 Motion with Resistive Forces Proportional to Velocity

7.08 C only Derivation: Moment of Inertia of Solid Cylinder

7.08 C only Derivation: Moment of Inertia of Solid Cylinder

7.07 C only Derivation: Moment of Inertia of Rod about c.m.

7.07 C only Derivation: Moment of Inertia of Rod about c.m.

5.0 Momentum Basics Rap & Lecture

5.0 Momentum Basics Rap & Lecture

5.5 Two dimensional collision example

5.5 Two dimensional collision example

2.09 Solving an Atwood Machine as a Single System

2.09 Solving an Atwood Machine as a Single System

2.08 Atwood Machine (Hanging Masses and Pulley Problem)

2.08 Atwood Machine (Hanging Masses and Pulley Problem)

Flipping Your Classroom Without Flipping Out

Flipping Your Classroom Without Flipping Out

How To Start Your Youtube Channel and Share A Video

How To Start Your Youtube Channel and Share A Video

21.6 Motional EMF

21.6 Motional EMF

21.5 Lenz's Law & Lenz/'s Law Right Hand Rule

21.5 Lenz's Law & Lenz/'s Law Right Hand Rule

21.3 How to Change Magnetic Flux

21.3 How to Change Magnetic Flux

21.4 Review of 3 Right Hand Rules

21.4 Review of 3 Right Hand Rules

21.1 Faraday's Law Intro

21.1 Faraday's Law Intro

19.06b Helical Path in Magnetic Field

19.06b Helical Path in Magnetic Field

21. Faraday's Law - Fraylick vs JB Free in Epic Rap Battle of Bio vs Physics

21. Faraday's Law - Fraylick vs JB Free in Epic Rap Battle of Bio vs Physics

20.2 C only Derivation of B field of Solenoid

20.2 C only Derivation of B field of Solenoid

20.1 C only Amperes Law & Derivation of B due to Current Carrying Wire

20.1 C only Amperes Law & Derivation of B due to Current Carrying Wire

19.13 Paramagnetism and Diamagnetism

19.13 Paramagnetism and Diamagnetism

19.12 Magnetic Domains

19.12 Magnetic Domains

19.10 Coil RHR for single current loop

19.10 Coil RHR for single current loop

19.11 B of Solenoid Test Yourself

19.11 B of Solenoid Test Yourself

19.09 B field created by solenoid & Coil RHR

19.09 B field created by solenoid & Coil RHR

19.08 B Field Created by Wire & Wire RHR

19.08 B Field Created by Wire & Wire RHR

19.07 Why Magnetic Force cant do Work

19.07 Why Magnetic Force cant do Work

19.06 Motion of charge in B field

19.06 Motion of charge in B field

19.05 Force and Torque on Current Loop

19.05 Force and Torque on Current Loop

19.04 Force on Wire in B field

19.04 Force on Wire in B field

19.03 Force on moving charge & RHR

19.03 Force on moving charge & RHR

19.02 Magnetic Field Lines

19.02 Magnetic Field Lines

19.01 Magnetic Poles

19.01 Magnetic Poles

19.00 Intro to Magnetism

19.00 Intro to Magnetism

18.21 q(t) for Discharging Cap

18.21 q(t) for Discharging Cap

18.20 Graphs of q(t) & I(t)

18.20 Graphs of q(t) & I(t)

18.01 Circuit Basics-Schematics

18.01 Circuit Basics-Schematics

18.18 q(t) for Charging Capacitor

18.18 q(t) for Charging Capacitor

18.19 I(t) for Charging Capacitor

18.19 I(t) for Charging Capacitor

17.6 Definition of Resistance (Ohm's Law)

17.6 Definition of Resistance (Ohm's Law)

17.7 Temperature Dependence of Resistivity

17.7 Temperature Dependence of Resistivity

18.07 Circuit Basics-Currents in Series

18.07 Circuit Basics-Currents in Series

18.09 Circuit Basics-Voltage Drops in Series

18.09 Circuit Basics-Voltage Drops in Series

18.08 Circuit Basics-Currents in Parallel

18.08 Circuit Basics-Currents in Parallel

18.10 Circuit Basics-Voltage Drops in Parallel

18.10 Circuit Basics-Voltage Drops in Parallel

18.05 Circuit Basics-Resistors in parallel

18.05 Circuit Basics-Resistors in parallel

18.04 Circuit Basics-Resistors in Series

18.04 Circuit Basics-Resistors in Series

18.02 Circuit Basics-Circuit Vocab

18.02 Circuit Basics-Circuit Vocab

17.5 E & J example

17.5 E & J example

17.4 Current Density & Ohms Law

17.4 Current Density & Ohms Law

17.3 Motion of Electrons in Wire

17.3 Motion of Electrons in Wire

17.2 Microscopic model of current

17.2 Microscopic model of current

17.1 Electrical Current

17.1 Electrical Current

18.15 Kirchhoffs Junction Rule

18.15 Kirchhoffs Junction Rule

18.15 Kirchhoffs Junction Rule

18.15 Kirchhoffs Junction Rule

18.14 Circuit Reduction Example - more complex

18.14 Circuit Reduction Example - more complex

18.17 Kirchhoffs Laws Problem

18.17 Kirchhoffs Laws Problem

18.16 Kirchhoffs Loop Rule

18.16 Kirchhoffs Loop Rule

18.12 Battery Internal Resistance

18.12 Battery Internal Resistance

18.13 Circuit Reduction Example

18.13 Circuit Reduction Example

18.06 Parallel Resistor Shortcuts

18.06 Parallel Resistor Shortcuts

18.11 Other IMPORTANT Circuit Analysis Tricks

18.11 Other IMPORTANT Circuit Analysis Tricks

18.03 Series vs Parallel quiz-puzzle

18.03 Series vs Parallel quiz-puzzle

16.16 Capacitor Games

16.16 Capacitor Games

16.15 Inserting a conductor between plates

16.15 Inserting a conductor between plates

16.14 Dielectric Strength and Electolytic Capacitor Dangers

16.14 Dielectric Strength and Electolytic Capacitor Dangers

16.13 Dielectrics

16.13 Dielectrics

16.12 AP-C only-Electric Field Energy Density

16.12 AP-C only-Electric Field Energy Density

16.11 Potential Energy of Capacitor

16.11 Potential Energy of Capacitor

16.10 How Voltage Divides in Series Caps

16.10 How Voltage Divides in Series Caps

16.09 Capacitors in Series

16.09 Capacitors in Series

16.08 Capacitors in Parallel

16.08 Capacitors in Parallel

16.07 Parallel vs Series configurations

16.07 Parallel vs Series configurations

16.06 Derivation of C for spherical capacitor

16.06 Derivation of C for spherical capacitor

16.05 Parallel Plate problem examples

16.05 Parallel Plate problem examples

16.04 Derivation of Capacitance of Parallel Plate Capacitor

16.04 Derivation of Capacitance of Parallel Plate Capacitor

16.03 Capacitance defined, conventions & units

16.03 Capacitance defined, conventions & units

16.02 What is a capacitor?

16.02 What is a capacitor?

16.01 Meaning of epsilon_0, Permittivity of Free Space, Permittivity of Vacuum

16.01 Meaning of epsilon_0, Permittivity of Free Space, Permittivity of Vacuum

16.00 Capacitors Song & Fields Review

16.00 Capacitors Song & Fields Review

15.14 Prove that on conductor, sigma is greatest where radius of curvature is smallest

15.14 Prove that on conductor, sigma is greatest where radius of curvature is smallest

15.13 AP C only: V and E due to disk of charge, on axis of disk

15.13 AP C only: V and E due to disk of charge, on axis of disk

15.12 AP C only: V and E due to ring of charge, on axis of ring

15.12 AP C only: V and E due to ring of charge, on axis of ring

15.11 C only: Finding E Field from V function

15.11 C only: Finding E Field from V function

15.10 Visualization of Dipole V

15.10 Visualization of Dipole V

15.09 V due to multiple point charges

15.09 V due to multiple point charges

15.08 Visualization of Potential due to q

15.08 Visualization of Potential due to q

15.07 Two charge problem example

15.07 Two charge problem example

15.06 Derivation of V due to charge

15.06 Derivation of V due to charge

15.05 More uniform field examples

15.05 More uniform field examples

15.04 Potential changes in Uniform Field

15.04 Potential changes in Uniform Field

15.03 gholtage (Gravitational Potential)

15.03 gholtage (Gravitational Potential)

15.02 Comparing Electric Field and Electric Potential

15.02 Comparing Electric Field and Electric Potential

15.01 Electric Potential Basics

15.01 Electric Potential Basics

15.00 Voltage Phreestyle (re: Chevy Volt sticker price), Review/Intro to Electric Potential

15.00 Voltage Phreestyle (re: Chevy Volt sticker price), Review/Intro to Electric Potential

13.00 Let Shine The Light (Rap) and Electric Fields Intro

13.00 Let Shine The Light (Rap) and Electric Fields Intro

13.13 E Field on Axis of Disk

13.13 E Field on Axis of Disk

13.12 E Field on Axis of Charged Ring

13.12 E Field on Axis of Charged Ring