A wire carries a constant current in the direction shown (see arrow). The current in the wire is increased at a steady rate. What will be the direction of a current induced in the loop (shown to the left in the figure). Explain briefly. Problem 1 A wire carries a constant current in the direction shown (see arrow). The current in the wire isincreased at a steady rate. What will be the direction of a current induced in the loop (shown to the left in thefigure). Explain briefly (4 points)О

Step 1:The magnetic field of a wire with the current I, at the distance d from the wire, is given by…

Problem 1 A wire carries a constant current in the direction shown (see arrow). The current in the wire is increased at a steady rate. What will be the direction of a current induced in the loop (shown to the left in the figure). Explain briefly (4 points) О

Problem 1 A wire carries a constant current in the direction shown (see arrow). The current in the wire is increased at a steady rate. What will be the direction of a current induced in the loop (shown to the left in the figure). Explain briefly (4 points) О

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter1: Units, Trigonometry. And Vectors

Section: Chapter Questions

Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...

See similar textbooks

Similar questions

Problem 1 All parts of this problem refer to the circular loop of wire in the coordinate system shown, with the z axis pointing out of the page. In each case, you are asked to give the direction of the current induced in the loop as "Clockwise", "Counter-clockwise", or "No current". You need not show your reasoning. Loop at rest. B uniform, in +z (that is, k) direction, increasing in mag- opyight 2021Princet nitude. b) Loop at rest. B uniform, in -z (that is, –k) direction, decreasing in magnitude. B = cak with constant c > 0, constant in time, loop moving at constant velocity in +x c) direction. B = crk with constant c > 0, constant in time, loop moving at constant velocity in -x d) direction. crk with constant c > 0, constant in time, loop moving at constant velocity in +y e) direction. %3D
This part can be done without the d) previous parts. The figure is repeated from the previous page. For each of the cases below, done individually, indi- cate if the induced current is clockwise (CW), counter- clockwise (CCW), or there is no induced current (NONE). You do not need to justify your answers. ye h pyright 20 A: Decrease a B: Decrease h C: Decrease I
this is not an essay assignment. I need help deriving the expression all of the info is in the question
The diagram below shows two long parallel wires, 1 & 2, each carrying a current of 56 A. The direction of the current for each wire is indicated in the diagram. The distance between the wires is 24 cm & the distance between wire 2 & point P is 26 cm. Use the standard cartesian coordinate system. A.) At P, determine the directions of B, & B2. direction of B, at P = Choose direction Choose direction P direction of B2 at P =" B.) Determine the x & y components of B, at P. B1X = OT B1Y C.) Determine the x & y components of B2 at P. B2x B2y D.) Determine the magnitude & direction of Bnet at P. Bnet direction of Bnet o to the VERTICAL in --- Choose quadrant ---
question 1 image is attached as an image.
The south pole of a bar magnet is brought toward the current loop of (Figure 1). Figure S N 1 of 1 Part A Does the bar magnet attract, repel, or have no effect on the loop? Explain. Match the words in the left column to the appropriate blanks in the sentences on the right. produces a magnetic dipole with a south pole on the left and a north pole on the right. produces a magnetic dipole with a north pole on the left and a south pole on the right. cannot produce a magnetic field at all. not affected by the current loop. repelled by the nearest south pole of the current loop. repelled by the nearest north pole of the current loop. attracted by the nearest south pole of the current loop. attracted by the nearest north pole of the current loop. The current loop shown Rese Therefore, the approaching south pole of the magnet is
Examine the circuit drawn in the image below. When the switch is closed assume a very strong magnetic field is produced in the solenoid. ( This solenoid is the typical demonstration solenoid connected to a battery that has a copper ring which can move on the iron core of the solenoid) a) Explain what will happen to the copper ring ( which is free to move when the switch is closed)? b) Explain what will happened to the copper ring when a steady current flows in the circuit? c) Explain what will happen to the copper ring when the switch is opened? d) How would you answers change if terminal on the power supply are reversed? Explain your results.
For each diagram below, in which direction (as viewed from above) would the induced current in the loop flow? State your response and then discuss in detail how you know. -I decreasing (a) I increasing I constant (c) (b) I increasing (d)
A pair of parallel conducting rails that are L = 12 cm apart lies at right angles to a uniform magnetic field of 0.7 T directed into the page, as shown in the figure below. A R = 17 resistor is connected across the rails. A conducting bar is moved to the right at 2 m/s across the rails. R ww Submit down 1) What is the current in the resistor? (Express your answer to two significant figures.) Submit 2) What direction is the current in the bar (up or down)? • up B, into page Submit Ø O to the left 2 m/s 4) What direction is the magnetic force on the bar due to the induced current? to the right upwards downwards into the page out of the page Submit 3) What is the magnetic force on the bar due to the induced current? (Express your answer to two significant figures.) L mA + mN +
I need the answer to this in the next hour if anyone can help
In the diagram at right, an uncharged conducting bar is moving with constant velocity v to the left through a region where there is a uniform magnetic field pointing out of the page. What charge distribution will the bar have, as a result of its motion? B out of page The bottom of the bar will have positive charge, and the top of the bar will have negative charge. The bar will remain electrically neutral at all points. The top of the bar will have positive charge, and the bottom of the bar will have negative charge. The right side of the bar will have positive charge, and the left side of the bar will have negative charge. The bar will gain a net positive charge, distributed uniformly along its length. The bar will gain a net negative charge, distributed uniformly along its length, The left side of the bar will have positive charge, and the right side of the bar will have negative charge.
2. The coaxial cable shown below is constructed from an inner solid cylindrical conductor of radius a and a conducting cylindrical shell of radius b. The two conductors are held at potential difference V. A current I flows to the right in the inner conductor, and an equal and opposite current flows in the conducting shell. Use a coordinate system with ? in the radial direction, 6 in the azimuthal direction, and 2 along the axis of the cylinders, pointing to the right. a. What is the Poynting vector for this configuration for a