5. A square coil that has 17.0 cm on each side containing 10 loops lies flat on your desk as shown on this page. A uniformmagnetic field of magnitude 6.00 × 10-5 T points towards the top of this page. If a 8.00-A counterclockwise current flowsthrough the coil,(a) determine the torque on the coil.N.mssf60 sforssf60 ssf60 ssf60 ssf60 ssff60 ssf60 ssf60 ssf60 ssf60 s**.6009J$.ssf60 ssf60 ssf60 ssf60 ssi "sX0 ssf60 ss ssf6060 ssf60 ssf60\ssf60 ssf60 ssf60‹60 ssf60 ssf60 ssf60 ssf60 ssf60 ss 6. (b) which edge of the coil risesCoussLeftRightNone of theseBottomTop5050 ssf60 s²sf60 ssf60 ssf60 ssf60 ssssf60 ssf60 ssf60 ssf60 s50 ssf60 ssf60 ssf60 ssf6ssf60³60 ssf60 ssf60 ssf60 ss

Given that: The side of the square is 17 cm The number of loops is 10 loops The magnetic field is…

5. A square coil that has 17.0 cm on each side containing 10 loops lies flat on your desk as shown on this page. A uniform magnetic field of magnitude 6.00 × 10-5 T points towards the top of this page. If a 8.00-A counterclockwise current flows through the coil, (a) determine the torque on the coil. 160 ss 60 ssfox 09J$$ 60 ssf

5. A square coil that has 17.0 cm on each side containing 10 loops lies flat on your desk as shown on this page. A uniform magnetic field of magnitude 6.00 × 10-5 T points towards the top of this page. If a 8.00-A counterclockwise current flows through the coil, (a) determine the torque on the coil. 160 ss 60 ssfox 09J$$ 60 ssf

Principles of Physics: A Calculus-Based Text

5th Edition

ISBN:9781133104261

Author:Raymond A. Serway, John W. Jewett

Publisher:Raymond A. Serway, John W. Jewett

Chapter22: Magnetic Forces And Magnetic Fields

Section: Chapter Questions

Problem 57P: A long solenoid that has 1 000 turns uniformly distributed over a length of 0.400 m produces a...

See similar textbooks

Similar questions

What force is exerted on the water in an MHD drive utilizing a 25.0-cm-diameter tube, it 100-A current is passed across the tube that is perpendicular to a 2.00T magnetic field? (The relatively small size of this force indicates the need for very large currents and magnetic fields to make practical MHD drives.)
When a magnet is thrust into a coil as in Figure 23.4(a), what is the direction of the louse exerted by the coil on the magnet? Draw a diagram showing the direction of the current induced in the coil and the magnetic field it produces, to justify your response. How does the magnitude of the force depend on the resistance of the galvanometer?
Explain why the magnetic field would not be unique (that is, not have a single value) at a point in space where magnetic field lines might cross. (Consider the direction of the field at such a point.)
Explain how magnetic flux can be zero when the magnetic field is not zero.
A strong electromagnet produces a uniform magnetic field of 1.60 T over a cross-sectional area of 0.200 m2. A coil having 200 turns and a total resistance of 20.0 is placed around the electromagnet. The current in the electromagnet is then smoothly reduced until it reaches zero in 20.0 ms. What is the current induced in the coil?
Inside a motor, 30.0 A passes through a 250-turn circular loop that is 10.0 cm in radius. What i5 the magnetic field strength created at its center?
A magnetized sewing needle has a magnetic moment of 9.70 mA m2. At its location, the Earths magnetic field is 55.0 T northward at 48.0 below the horizontal. Identify the orientations of the needle that represent (a) the minimum potential energy and (b) the maximum potential energy of the needlefield system. (c) How much work must be done on the system to move the needle from the minimum to the maximum potential energy orientation?
A 25-cm nod moves at 5.0 m/s in a plane perpendicular to a magnetic field of strength 0.25 T. The rod, velocity vector, and magnetic field vector are mutually perpendicular, as indicated in tire accompanying figure. Calculate (a) the magnetic force on an electron in tire rod, (b) the electric field in the rod, and (c) the potential difference between the ends of the rod. (d) What is the speed of the rod if the potential difference is 1.0 V?
The force on the rectangular loop of wire in the magnetic field in Figure 22.56 can be used to measure field strength. The field is uniform, and the plane of the loop is perpendicular to the field. (a) What is the direction of the magnetic force on the loop? Justify the claim that the forces on the sides of the loop are equal and opposite, independent at how much of the loop is in the field and do not affect the net force on the loop. (b) If a current of 5.00 A is used, what is the force per tesla on the 20.0-cm-wide loop? Figure 22.56 A rectangular loop of wire carrying a current is perpendicular to a magnetic field. The field is uniform in the region shown and is zero outside that region.
A current of 17.0 mA is maintained in a single circular loop of 2.00 in circumference. A magnetic field of 0.800 T is directed parallel to the plane of the loop. a. Calculate the magnetic moment of the loop. b. What is the magnitude of the torque exerted by the magnetic field on the loop?
A uniform horizontal wire with a linear mass density of 0.50 g/m carries a 2.0-A current. It is placed in a constant magnetic field with a strength of 4.0 103 T. The field is horizontal and perpendicular to the wire. As the wire moves upward starting from rest, (a) what is its acceleration and (b) how long does it take to rise 0.50 m? Neglect the magnetic field of Earth.
Why is the following situation impossible? The magnitude of the Earths magnetic field at either pole is approximately 7.0 105 T. Suppose the field fades away to zero before its next reversal. Several scientists propose plans for artificially generating a replacement magnetic field to assist with devices that depend on the presence of the field. The plan that is selected is to lay a copper wire around the equator and supply it with a current that would generate a magnetic field of magnitude 7.00 105 T at the poles. (Ignore magnetization of any materials inside the Earth.) The plan is implemented and is highly successful.