A wire 60.0 cm long is held parallel to and 100 cm above a long wirecarrying 200 A and resting on the floor. The 60.0-cm wire is released andfalls, remaining parallel with the current-carrying wire as it falls. What isthe induced emf on the wire 0.200 s after the wire is released? Giveyour answer in µV. (g=10 m/s²)Başlangıçta, 60.0 cm uzunluğunda bir tel, yerde duran çok uzun 200 Aakım taşıyan bir tele paralel 100 cm yükseğinde durmaktadır. 60,0-cmuzunluğundaki tel serbest bırakılmış ve yerdeki akım taşıyan tele paralelkalacak şekilde g ivmesi ile serbest düşmektedir. Kısa tel serbestbırakıldıktan 0,200 s sonra üzerinde indüklenen emk uV cinsinden nedir?(g=10m/s² )

Given;- The length of the wire L1= 60 cm = 0.6 m The distance of the other wire d=100 cm=1 m I…

A wire 60.0 cm long is held parallel to and 100 cm above a long wire carrying 200 A and resting on the floor. The 60.0-cm wire is released and falls, remaining parallel with the current-carrying wire as it falls. What is the induced emf on the wire 0.200 s after the wire is released? Give your answer in µV. (g=10 m/s²) Baslangicta cm uzunluğunda bir tel verde duran cok uzun 20

A wire 60.0 cm long is held parallel to and 100 cm above a long wire carrying 200 A and resting on the floor. The 60.0-cm wire is released and falls, remaining parallel with the current-carrying wire as it falls. What is the induced emf on the wire 0.200 s after the wire is released? Give your answer in µV. (g=10 m/s²) Baslangicta cm uzunluğunda bir tel verde duran cok uzun 20

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

6:03 all ? a Imssb1.mutah.edu.jo riay yueaUUn Consider the arrangement shown in the figure below. Assume that R = 6.00 2, I=1.20 m, and a uniform 2.50T magnetic field is directed into the page. At what speed ( in units of m/s) should the bar be moved to produce a current of 10.4 A in the resistor? B app Select one: O A. 20.80 О в. 41.60 O c. 6.93 O D. 26.00 O E. 13.52 Previous page Next page Quiz navigation 10
A fixed 17.4-cm-diameter wire coil is perpendicular to a magnetic field 0.56 T pointing up. In 0.29 s , the field is changed to 0.35 T pointing down. What is the average induced emf in the coil?
Suppose a magnetic field B(t) oscillates with frequency w. A circular loop of copper lies perpendicular to the magnetic field. The radius of the circular loop is r. a. Write down an expression for the magnetic field as a function of time. Determine the induced emf & in the loop of wire and use this to calculate the current generated in the loop as a function of time. b. What is the power dissipation in the wire as a function to time? Make a sketch of this function. What is the average power Pave dissipation in the wire? Hint: what is the average value of the function you sketched? C. Recall that power is a rate of energy transfer, and that power dissipated by a resistor leads to a change in the thermal energy of the material (in this case the copper wire). We can relate a change in thermal energy to a change in temperature by AT where M is the total mass and c ΔΕth Mc is the specific heat capacity of the material (see page 526 for details). Find an expression for a dT - differential…
In a region of space where the magnetic field of the earth has a magnitude of 80 mT and is directed 30° below the horizontal, a 50-cm length of wire oriented horizontally along an east-west direction is moved horizontally to the south with a speed of 20 m/s. What is the magnitude of the induced potential difference between the ends of this wire? a. 0.40 mV b. 0.35 mV c. 0.69 mV d. 0.45 mV e. 0.30 mV
G6
Self-inductance. A coil has a self-inductance of 50 [H] and a resistance of 3.5 [2]. It is connected to a 9.0 [V] battery with internal resistance of 0.25 [12]. What is the total magnetic energy stored in the coil when steady-state current is reached? O A. 1.65 x 10-4 [J] OB. 6.43 x 10-5 [J] O C. 1.44 x 10-4 [J] O D. 6.00 x 10-5 [J]
A wire 60.0 cm long is held parallel to and 100 cm above a long wire carrying 100 A and resting on the floor. The 60.0-cm wire is released and falls, remaining parallel with the current-carrying wire as it falls. What is the induced emf on the wire 0.200 s after the wire is released? Give your answer in µV. (g=10 m/s² )
Three loops of wire move near a long straight wire carrying a current as in Figure P20.9. What is the direction of the induced current, if any, in (a) loop A, (b) loop B, and (c) loop C. A B I C Figure P20.9
A coil has a self-inductance of 50 [H] and a resistance of 3.5 []. It is connected to a 9.0 [V] battery with internal resistance of 0.25 [2]. What is the total magnetic energy stored in the coil when steady-state current is reached? O A. 1.65 x 10-4 [J] O B. 6.43 × 10-5 [J] O C. 1.44 x 10-4 [J] O D. 6.00 x 10-5 [J]
Please help me answer the following. A wire loop is immersed in a b-field. the loop shrinks from a radiuse of 52 cm to a radius of 4.9cm in .22 seconds and as a result a 8.3V voltage and a 2.6 A current are induced. determine the magnitude of the b-field and the loops resistance.
what is correct answer?
The current in a long solenoid of radius 6 cm and 22 turns/cm is varied with time at a rate of 3 A/s. A circular loop of wire of radius 8 cm and resistance 7 0 surrounds the solenoid. Find the electrical current induced in the loop (in HA). HA