Embibe Experts Solutions for Chapter: Moving Charges and Magnetism, Exercise 1: Exercise

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Embibe Experts Physics Solutions for Exercise - Embibe Experts Solutions for Chapter: Moving Charges and Magnetism, Exercise 1: Exercise

Attempt the practice questions on Chapter 4: Moving Charges and Magnetism, Exercise 1: Exercise with hints and solutions to strengthen your understanding. Achieve CUET (UG) Physics Practice Book solutions are prepared by Experienced Embibe Experts.

Questions from Embibe Experts Solutions for Chapter: Moving Charges and Magnetism, Exercise 1: Exercise with Hints & Solutions

HARD
CUET (UG)
IMPORTANT

A particle of specific charge (q/m) is projected from the origin of coordinates with initial velocity [ui-vj]. Uniform electric magnetic fields exist in the region along the +y direction, of magnitude E and B. The particle will definitely return to the origin once if

MEDIUM
CUET (UG)
IMPORTANT

According to Bio-Savart law states that the magnetic field due to the current element:

EASY
CUET (UG)
IMPORTANT

Assertion: Ampere's circuital law holds for steady currents which do not fluctuate with time.
Reason: Ampere's circuital law is similar to that of Biot-Savart law.

EASY
CUET (UG)
IMPORTANT

A toroid has 500 turns per unit length. If it carries a current of 2 A, the magnetic energy density inside the toroid is

EASY
CUET (UG)
IMPORTANT

When the number of turns in a toroidal coil is doubled, then the value of magnetic flux density will becomes

EASY
CUET (UG)
IMPORTANT

Two long parallel wires separated by a distance r have equal currents I flowing in each. Either wire experiences a magnetic force F N/m. If the distance r is increased to 3r and current in each wire is reduced to I/3, the force between them will now be -

HARD
CUET (UG)
IMPORTANT

Loop ABCD and long straight wire are in the same plane. Side CD=2AB. Distance between long straight wire and AB is equal to the distance between AB and CD. Net force on the loop is 

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EASY
CUET (UG)
IMPORTANT

A galvanometer has a coil of resistance 5 Ω and requires 15 mA for full-scale deflection. The shunt resistance needed to convert the galvanometer into an ammeter of the range 0-1 A is