Question

How is the equation for the field of a solenoid derived from Ampere's law?

How is the equation for the field of a solenoid derived from Ampere's law?

Homework Answers

Know the answer?
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Not the answer you're looking for?
Ask your own homework help question
Similar Questions
How is the equation for the field of a solenoid derived from Ampere's Law?
How is the equation for the field of a solenoid derived from Ampere's Law?
Note: I'm really only struggling with part c. Lorentz Law, Ampere's Law, and Faraday's Law a.)...
Note: I'm really only struggling with part c. Lorentz Law, Ampere's Law, and Faraday's Law a.) Two equal current carrying infinite wires with current I = 2amps and separation d = 0.5m repel one another. Find the force per unit lengh (f). Give the relative directions of the currents in the wires by drawing a diagram. b.) Find the strength of the magnetic field (B) inside a solenoid with n= 200 turns/meter (loops per unit length) and carrying a current...
A long thin wire carries a current of 1.4 amps. Use Ampere's law and a symmetry...
A long thin wire carries a current of 1.4 amps. Use Ampere's law and a symmetry agrument to find the magnetic field everywhere.
A 310 turn solenoid with a length of 23.0 cm and a radius of 1.60 cm...
A 310 turn solenoid with a length of 23.0 cm and a radius of 1.60 cm carries a current of 1.85 A. A second coil of four turns is wrapped tightly around this solenoid, so it can be considered to have the same radius as the solenoid. The current in the 310 turn solenoid increases steadily to 5.00 A in 0.900 s. (a) Use Ampere's law to calculate the initial magnetic field in the middle of the 310 turn solenoid....
The magnetic field measured with a Teslameter (or Gaussmeter) at the center of a solenoid is...
The magnetic field measured with a Teslameter (or Gaussmeter) at the center of a solenoid is 3.0 mT when a current of 0.3 A is flowing through it. The length of the solenoid is 15.0 cm. (a) Calculate the number of turns in the solenoid. (b) To produce magnetic field of 1.5 T at the center of the solenoid, how much current is needed? (c) If the diameter of the solenoid is 5.0 cm and a 10-turn coil with average...
1)Derive the charge continuity equation from first principles,stating clearly any assumptions made. 2)Show that the time...
1)Derive the charge continuity equation from first principles,stating clearly any assumptions made. 2)Show that the time independent form of Ampere's law,together with the continuity equation,give a result which is at variance with the experiment. 3)Derive the time-dependent form of Ampere's law from the requirement that it be consistent with the continuity equation and the other laws of electromagnetic induction.
To practice Problem-Solving Strategy 28.2 Ampere's Law. A solid cylindrical conductor is supported by insulating disks...
To practice Problem-Solving Strategy 28.2 Ampere's Law. A solid cylindrical conductor is supported by insulating disks on the axis of a conducting tube with outer radius Ra = 7.75 cm and inner radius Rb = 5.05 cm. (Figure 1) The central conductor and the conducting tube carry equal currents of I = 3.45 A in opposite directions. The currents are distributed uniformly over the cross-sections of each conductor. What is the value of the magnetic field at a distance r...
The Schrodinger equation, the Dirac equation and the Boltzmann equation cannot be derived exactly from some...
The Schrodinger equation, the Dirac equation and the Boltzmann equation cannot be derived exactly from some more basic theory. Why then should anyone be willing to call work based on these equations scientific theories?
why dont the toroidial solenoid have poles? and explain how the magnitic field cause?
why dont the toroidial solenoid have poles? and explain how the magnitic field cause?
The Biot-Savart Law to derive the equation of the magnetic field of a long, straight wire?
The Biot-Savart Law to derive the equation of the magnetic field of a long, straight wire?