The current flowing through inductor of self inductance L is continously increasing. Plot a graph showing the variation of
(i) Magnetic flux versus the current
(ii) Induced emf versus `dI//dt`
(iii) Magnetic potential energy stored versus the current.

(a) Describe a simple experiment (or activity) to show that the polarity of emf induced in a coil is always such that it tends to produce a current which opposes the change of magnetic flux that produces it. (b) The current flowing through an inductor of self inductance L is continuously increasing. Plot a graph showing the variation of (i) Magnetic flux versus the current (ii) Induced emf versus dI/Dt (iii) Magnetic potential energy stored versus the current.

(a) Describe a simple experiment (or activity) to show that the polarity of emf induced in a coil is always such that it tends to produce a current which opposes the change of magnetic flux that produces it. (b) The current flowing through an inductor of self inductance L is continuously increasing. Plot a graph showing the variation of (i) Magnetic flux versus the current (ii) Induced emf versus dI/Dt (iii) Magnetic potential energy stored versus the current.

The current flowing through an inductor of self inductance L is continuously increasing. Plot a graph showing the variation magnetic flux versus the current

The current flowing through an inductor of self inductance L is continuously increasing . Plot a graph showing the variation of (i) Magnetic flux vs the current (ii) Induced emf vs. dI//dt (iii) Magnetic potential energy stored vs. the current

The current flowing through an inductor of self inductance L is continuously increasing. Plot a graph showing the variation induced emf versus dI/dt