the magnetic force between two parallel conductors and
play

The Magnetic Force Between Two Parallel Conductors and Amperes Law - PDF document

Nov 03, 2023 •202 likes •316 views

The Magnetic Force Between Two Parallel Conductors and Amperes Law The Magnetic Field Near a Long Straight Wire The Magnetic Force Between Two Parallel Conduc- tors Amperes Law The Magnetic Field Created by a Long Current-

  1. The Magnetic Force Between Two Parallel Conductors and Ampere’s Law � The Magnetic Field Near a Long Straight Wire � The Magnetic Force Between Two Parallel Conduc- tors � Ampere’s Law � The Magnetic Field Created by a Long Current- Car- rying Wire � The Magnetic Field of a Solenoid � Homework

  2. ★ ✳ ✖ ★ ✧ ✖ ✑ ✶ ✑ ✁ ✵ ☎ ★ ☎ ✂ ✖ ★ ✧ ✖ ★ ✂ ★ ✍ ❁ ☛ ❇ ☎ ❅ ❆ ❅ ❄ ❃ ❁ ✽✾ ✖ ★ ✧ ✖ ✑ ✑ ✾✿ ✾ ☎ ✑ ☛ ★ ✕ ☎ ✦ ✑ ✖ ✧ ☎ ✌ ✕ ✤ ✖ ✔ ✁ ✓ ✤ ☎ ✌ ☎ ✬ ✁ The Magnetic Field Near a Long Straight Wire θ ds r r s dB R I ✏✒✑ ✑✚✙✜✛✣✢ ✁✎✍ ✁✄✂ ✆✞✝✠✟ ✆✞✝✘✟ ✡☞☛ ✡☞☛ ✕✗✖ ✕✥✖ ✙✜✛✣✢ ✙✜✛✣✢ ✤✮✭ ✩✫✪ ✆✯✝✠✟ ✡☞☛ ✰✲✱✴✳ ✖✸✷✺✹✼✻ ❀❂❁ ✆✯✝✲✟ ✆✯✝✲✟ ✡☞☛

  3. ✩ ❉ ❇ ☛ ✟ ❈ ❉ ❊ ☎ ☛ ✟ ✟ ✖ ❇ ☛ ✩ ❈ ❊ ☎ ✆ ✖ ❉ ❇ ✩ ✩ ✂ ✖ ☎ ✖ ✖ ❇ ☛ ❈ ❉ ❉ ☎ ✟ ✟ ✂ ✖ ☎ ❊ ✝ The Magnetic Force Between Two Parallel Current-Carrying Conductors Serway/Jewett Figure 22.26 ✆✞✝✘✟ ✆✯✝✲✟ ❉❋❊ ✆✯✝✲✟ The force is attractive if the currents are in the same di- rection and repulsive if they are in opposite directions.

  4. ● ✍ ✏ ✂ ✍ ✏ ✑ ☎ Ampere’s Law Serway/Jewett Figure 22.27 ❍■✁ ✆✯✝✲✟ where I is the total current passing through any surface bounded by the closed path.

  5. ✭ ✂ ★ P ✕ ✕ ✕ ☛ ❇ ☎ ✂ ☎ ✭ ✕ ☛ ❇ ✬ ☎ ✆ ● ✍ ✏ ✂ ✑ ☎ ✝ ✟ ✂ The Magnetic Field Created by a Long Current-Carrying Wire Serway/Jewett Figure 22.30 ✏✒✑ ❍■✁✎✍ Outside the wire ●❏✁ ✆✞✝✘✟ ✬▼▲❖◆ ✆✞✝✠✟❑✝

  6. ✭ ❲ ❙❚ ☎ ✂ ❨ ❲ ❲ ❲ ❚❯ ✖ ★ ✖ ✕ ❚❯ ❚ ❚ ✆ ❙❚ ❲ ★ ❭ ✕ ✕ ✕ ❨ ❲ ✝ ✖ ★ ☛ ❇ ✝ ✟ ❚ ❚ ★ ✂ ◗ ✟ ☎ ✕ ✖ ☎ ✖ ☛ ● ✍ ✏ ✖ ★ ✕ ☎ ☛ ☎ ✂ ✬ ❇ ☛ ✕ ✭ ✟ ✖ The Magnetic Field Created by a Long Current-Carrying Wire (cont’d) Serway/Jewett Figure 22.30 Inside the wire ✟❘✝ ✟❑✝ ❱❳❲ ✏✒✑ ❍■✁✎✍ ✆✞✝ ✟❘✝ ❱❳❲ ✬❩▲❬◆

  7. The Magnetic Field Created by a Long Current-Carrying Wire (cont’d) Serway/Jewett Figure 22.30 Serway/Jewett Figure 22.31

  8. The Magnetic Field of a Solenoid

  9. ✟ ✑ ☎ ✍ ✏ ✂ ✟ ☎ ❊ ✟ ✰ ❪ ✂ ✁ ✧ ✂ ✐ ✧ ✐ ✧ ✐ ☎ ❤ ✟ ✂ ❊ ☎ ☎ ✧ ✪ ✂ ❤ ● ✍ ✏ ✂ ✍ ✏ ✑ ☎ ❦ ✍ ✏ ✏ ✂ ✪ ✧ ☎ ✍ ✏ ✍ ✟ ✂ ✧ The Magnetic Field Inside an Infinitely Long Ideal Solenoid Serway/Jewett Figure 22.34 ❍■✁ ✆✯✝✲✟ ✏❵✑ ✏✒✑ ✏✒✑ ✏✒✑ ❍❴✁✎✍ ❍❝✁✎✍ ❍❝✁✎✍ ❍❝✁✎✍ ✆✞✝✲❤ ✰❫❪ ✰❜❛ ✰❡❞ ✰❣❢ ✆✞✝✲❤ ✆✯✝❥❤ ✆✯✝ ✆✞✝ ❊ is the number of turns per unit length where

  10. Homework Set 22 - Dur Wed. May 26 � Read Sections 22.8 - 22.10 � Do Problems 22.30, 22.31, 22.33 & 22.41

Download Presentation
Download Policy: The content available on the website is offered to you 'AS IS' for your personal information and use only. It cannot be commercialized, licensed, or distributed on other websites without prior consent from the author. To download a presentation, simply click this link. If you encounter any difficulties during the download process, it's possible that the publisher has removed the file from their server.

Recommend

E N G I N E E R I N G P H Y S I C S SUBTOPICS S C I Magnets, magnetic

E N G I N E E R I N G P H Y S I C S SUBTOPICS S C I Magnets, magnetic

2011/2012 E N G I N E E R I N G P H Y S I C S SUBTOPICS S C I Magnets, magnetic poles and S Y magnetic field direction H P Magnetic field strength and magnetic G N force I R E Force and current-carrying

736 views • 41 slides
Unit 2: Electric properties of conductors and dielectrics. Charged conductors in electrostatic

Unit 2: Electric properties of conductors and dielectrics. Charged conductors in electrostatic

Unit 2: Electric properties of conductors and dielectrics. Charged conductors in electrostatic equilibrium. Ground. Electrostatic influence. Electric shield. The parallel-plate capacitor. Capacitance. Stored energy in a capacitor.

322 views • 29 slides
Sources of the Magnetic Field We have been dealing with problems involving magnetic force on

Sources of the Magnetic Field We have been dealing with problems involving magnetic force on

Sources of the Magnetic Field We have been dealing with problems involving magnetic force on charged particles moving in a magnetic field Where do magnetic field come from? Moving charges or electric currents TimelineI

658 views • 18 slides
AP Physics C Sources of Magnetic Field Multiple Choice Slide 2 / 22 1 Two long parallel wires

AP Physics C Sources of Magnetic Field Multiple Choice Slide 2 / 22 1 Two long parallel wires

Slide 1 / 22 AP Physics C Sources of Magnetic Field Multiple Choice Slide 2 / 22 1 Two long parallel wires are separated by distance R carrying two currents, I 1 and I 2 respectively. To increase the force exerted on each wire by two times

375 views • 8 slides
F I l B In general for all wires in magnetic fields

F I l B In general for all wires in magnetic fields

Force on a Loop In a uniform magnetic field a straight wire experiences a force. F I l B In general for all wires in magnetic fields dF I dl B For a uniform magnetic field only the

263 views • 13 slides
Winter 2004 OSU Sources of Magnetic Fields 1 Chapter 32 Sources Of Magnetic Fields We

Winter 2004 OSU Sources of Magnetic Fields 1 Chapter 32 Sources Of Magnetic Fields We

Winter 2004 OSU Sources of Magnetic Fields 1 Chapter 32 Sources Of Magnetic Fields We learned two ways to calculate Electric Field Coulomb's Force 1 dq dE r Brute Force Calculation 2 4 r 0 Q

518 views • 18 slides
I IaB = Fb = ( IaB ) b = IabB = IAB B = IA = Iab b IaB ~ = ~ B (present case:

I IaB = Fb = ( IaB ) b = IabB = IAB B = IA = Iab b IaB ~ = ~ B (present case:

Lecture 27: Magne&c Force, Torque, Circular Motor and the Hall Effect Magnetic Force: ~ B field exerts a force on the source, q ~ v ~ v ~ Nq l F = q ~ B ~ t = I l l F = I

319 views • 10 slides
Currents in Magnetic Fields Current: I qnv A d Each charge q feels a

Currents in Magnetic Fields Current: I qnv A d Each charge q feels a

Currents in Magnetic Fields Current: I qnv A d Each charge q feels a magnetic force: F q v B B Force on a wire segment of length dl is the force on all of the charges in that segment: dQ

319 views • 12 slides
Origin of Magnetic field A current (or moving charge) experience a magnetic force when it is in a

Origin of Magnetic field A current (or moving charge) experience a magnetic force when it is in a

Origin of Magnetic field A current (or moving charge) experience a magnetic force when it is in a magnetic field. The magnetic field is the result of another current (or moving charge). If electric field describes the interaction between two

344 views • 8 slides
DIPOLES IN MAGNETIC FIELD 6.1.2 MD12-7 F I L B The force on a segment of wire L

DIPOLES IN MAGNETIC FIELD 6.1.2 MD12-7 F I L B The force on a segment of wire L

DIPOLES IN MAGNETIC FIELD 6.1.2 MD12-7 F I L B The force on a segment of wire L is = A current-carrying wire loop is in a constant magnetic field B = B z_hat as shown. What is the direction of the torque on the loop? A)

375 views • 9 slides
Electric Forces and Fields Charge Coulomb's Law Electric Fields Conductors &

Electric Forces and Fields Charge Coulomb's Law Electric Fields Conductors &

Electric Forces and Fields Charge Coulomb's Law Electric Fields Conductors & Insulators Parallel plates Dipoles 1 Friction causes these effects Pollen sticks to bees Dust sticks to TV Static cling of

406 views • 28 slides
Parallel Magnetic Field Spatial Resolution Micromegas Weekly 10.09.13 Jona Bortfeldt LMU

Parallel Magnetic Field Spatial Resolution Micromegas Weekly 10.09.13 Jona Bortfeldt LMU

Garfield Simulation: Electron Diffusion in a Parallel Magnetic Field Spatial Resolution Micromegas Weekly 10.09.13 Jona Bortfeldt LMU Munich 10.09.13 Jona Bortfeldt 1 Reminder: Influence of parallel B-field on Cluster Width? (-> Spatial

459 views • 10 slides
The magnetic force on a charged particle 1) depends on the sign of the charge on the particle.

The magnetic force on a charged particle 1) depends on the sign of the charge on the particle.

The magnetic force on a charged particle 1) depends on the sign of the charge on the particle. 2) depends on the velocity of the particle. 3) depends on the magnetic field at the particle's instantaneous position. 4) is at right angles to both

135 views • 9 slides
Magnetic Stirrer Madhuri Jash 23/01/2016 What is Magnetic Stirrer/ Magnetic Mixer? A magnetic

Magnetic Stirrer Madhuri Jash 23/01/2016 What is Magnetic Stirrer/ Magnetic Mixer? A magnetic

INSTRUMENTAL TECHNIQUE PRESENTATION Magnetic Stirrer Madhuri Jash 23/01/2016 What is Magnetic Stirrer/ Magnetic Mixer? A magnetic stirrer or magnetic mixer is a laboratory device that employs a rotating magnetic field to cause a stir bar

1.03k views • 5 slides
MTLE-6120: Advanced Electronic Properties of Materials Magnetic properties of materials Reading:

MTLE-6120: Advanced Electronic Properties of Materials Magnetic properties of materials Reading:

1 MTLE-6120: Advanced Electronic Properties of Materials Magnetic properties of materials Reading: Kasap: 8.1 - 8.8 2 Materials in magnetic fields v Charges circulate around magnetic field due to force q B Magnetic dipole

323 views • 21 slides
to the left B out of the page C into the page D to the top of the page E Slide 2 / 30 2 A

to the left B out of the page C into the page D to the top of the page E Slide 2 / 30 2 A

Slide 1 / 30 1 Two protons move parallel to x- axis in opposite directions at the same speed v. What is the direction of the magnetic force on the upper proton? A to the right to the left B out of the page C into the page D to the top of

737 views • 30 slides
Class 33. Amperes Law Path Integral of Magnetic Field Path Integral: B d

Class 33. Amperes Law Path Integral of Magnetic Field Path Integral: B d

Class 33. Amperes Law Path Integral of Magnetic Field Path Integral: B d s ds B Do you remember: (for stationary case) E d s ? Gausss Law (Maxwells first equation) From Class 6 For any

372 views • 8 slides
qubits Michael Hatridge Department of Applied Physics, Yale University Katrina Sliwa Chen Wang

qubits Michael Hatridge Department of Applied Physics, Yale University Katrina Sliwa Chen Wang

35 Remote entanglement of transmon qubits Michael Hatridge Department of Applied Physics, Yale University Katrina Sliwa Chen Wang Anirudh Narla Luigi Frunzio Shyam Shankar Steven Girvin Zaki Leghtas Robert Schoelkopf Mazyar Mirrahimi

733 views • 35 slides
Monge-Amp` ere Measures and Poletsky-Stessin Hardy Spaces on Bounded Hyperconvex Domains Sibel S

Monge-Amp` ere Measures and Poletsky-Stessin Hardy Spaces on Bounded Hyperconvex Domains Sibel S

Monge-Amp` ere Measures and Poletsky-Stessin Hardy Spaces on Bounded Hyperconvex Domains Sibel S .ahin Sabanc University, Istanbul Poletsky-Stessin Hardy Spaces Outline Preliminaries Poletsky-Stessin Hardy Spaces on Domains Bounded

458 views • 22 slides
Physics and Measurements Physics Physics is the science of measurement . Physical

Physics and Measurements Physics Physics is the science of measurement . Physical

Physics and Measurements Physics Physics is the science of measurement . Physical quantity is any quantity that can be measured . Units of Measurement Mass The mass of an object is the mount of matter contained in this object .

256 views • 11 slides
Amperes Law Gausss Law The Idea The total flux of field lines penetrating any of

Amperes Law Gausss Law The Idea The total flux of field lines penetrating any of

Amperes Law Gausss Law The Idea The total flux of field lines penetrating any of these surfaces is the same and depends only on the amount of charge inside Amperes Law: The Idea In order to have a B field around a loop,

272 views • 9 slides
Amperes Law Gausss Law the idea and the equation The total flux of field lines

Amperes Law Gausss Law the idea and the equation The total flux of field lines

Amperes Law Gausss Law the idea and the equation The total flux of field lines penetrating any of these surfaces is the same and depends only on the amount of charge inside Amperes Law: The Idea In order to have a B field

597 views • 12 slides
Physics 115 General Physics II Session 29 Magnetic forces, Coils, Induction R. J. Wilkes

Physics 115 General Physics II Session 29 Magnetic forces, Coils, Induction R. J. Wilkes

Physics 115 General Physics II Session 29 Magnetic forces, Coils, Induction R. J. Wilkes Email: phy115a@u.washington.edu Home page: http://courses.washington.edu/phy115a/ 5/22/14 1 Lecture Schedule Today 5/22/14 2

274 views • 15 slides
wires carry equal currents in the same direction, as shown. The diagrams show end views of the

wires carry equal currents in the same direction, as shown. The diagrams show end views of the

Two very long, parallel conducting wires carry equal currents in the same direction, as shown. The diagrams show end views of the wires and the magnetic force vectors due to current flow. Which diagram best represents the direction of the

414 views • 13 slides

More recommend