Assertion: If two waves of same amplitude produce a resultant wave of same amplitude,then the phase difference between them will be ` 120 ^(@) `
Reason: The resultant amplitude of two waves is equal to vector sum of amplitudes treated as vectors

If two waves of same amplitude produce a resultant wave of same amplitude a phase difference between the two is

(A): If two waves of same amplitude, produce a resultant wave of same amplitude, then the phase difference between them will be 120^(@) (R): The resultant amplitude of two waves is equal to sum of amplitude of two waves

(A): If two waves of same amplitude, produce a resultant wave of same amplitude, then the phase difference between them will be 120^(@) (R): The resultant amplitude of two waves is equal to sum of amplitude of two waves

If two waves of amplitude a produce a resultant wave of amplitude a, then the phase difference between them will be

Assertion (A) : If two waves of same amplitude produce a resultant wave of same amplitude produce a resultant wave of same of same amplitude, then the phase difference between them may br 120^(@) . Reason (R ) : The resultant amplitude of two waves is equal to algebraic sum of amplitude of two waves.

Statement I : If two waves of same amplitude , produce a resultant wave of same amplitude, then phase difference between them will be 120^(@) . Statement II : Velocity of sound is directly proportional to the square of its absolute temperature .

Two waves of the same frequency and amplitude super impose to produce a resultant disturbance of the same amplitude. The phase difference between the waves is.

Two sound waves travel in the same direction in a medium. The amplitude of each wave is A and the phase difference between the two waves is 120^(@) . The resultant amplitude will be