Home
Class 11
PHYSICS
Two waves passing through a region are r...

Two waves passing through a region are represented by
`y = ( 1.0 m) sin [( pi cm^(-1)) x - ( 50 pi s^(-1))t]`
and `y = ( 1.5 cm) sin [( pi //2 cm^(-1)) x - ( 100 pi s^(-1)) t]`.
Find the displacement of the particle at ` x = 4.5 cm` at time ` t = 5.0 ms`.

Text Solution

AI Generated Solution

To find the displacement of the particle at \( x = 4.5 \, \text{cm} \) and \( t = 5.0 \, \text{ms} \) due to the two waves, we will follow these steps: ### Step 1: Identify the wave equations The two waves are given by: 1. \( y_1 = (1.0 \, \text{m}) \sin \left( \pi \, \text{cm}^{-1} \, x - 50 \pi \, \text{s}^{-1} \, t \right) \) 2. \( y_2 = (1.5 \, \text{cm}) \sin \left( \frac{\pi}{2} \, \text{cm}^{-1} \, x - 100 \pi \, \text{s}^{-1} \, t \right) \) ### Step 2: Convert units ...
Promotional Banner

Similar Questions

Explore conceptually related problems

Two waves passing through a region are represented by y=(1.0cm) sin [(3.14 cm^(-1))x - (157s^(-1) x - (157s^(-1))t] and y = (1.5 cm) sin [(1.57 cm^(-1))x- (314 s^(-1))t]. Find the displacement of the particle at x = 4.5 cm at time t = 5.0 ms.

Two waves passing through a region are represented by y=(1.0cm) sin [(3.14 cm^(-1))x - (157s^(-1))t] and y = (1.5 cm) sin [(1.57 cm^(-1))x- (314 s^(-1))t]. Find the displacement of the particle at x = 4.5 cm at time t = 5.0 ms.

The equation for a wave travelling in x-direction 0n a string is y = (3.0 cm) sin [(3.14 cm^(-1) x -(314 s^(-1)t] (a) Find the maximum velocity of a particle of the string. (b) Find the acceleration of a particle at x = 6.0 cm at time t = 0.11 s

The equation for a wave travelling in x-direction on a string is y = (3.0cm)sin[(3.14 cm^(-1) x - (314s^(-1))t] (a) Find the maximum velocity of a particle of the string. (b) Find the acceleration of a particle at x =6.0 cm at time t = 0.11 s.

Two waves travelling in a medium in the x-direction are represented by y_(1) = A sin (alpha t - beta x) and y_(2) = A cos (beta x + alpha t - (pi)/(4)) , where y_(1) and y_(2) are the displacements of the particles of the medium t is time and alpha and beta constants. The two have different :-

A particle is subjected to two simple harmonic motions given by x_(1) = 2.0sin (100 pi t) and x_(2) = 2.0sin (120pi t + pi //3) where, x is in cm and t in second. Find the displacement of the particle at (a) t = 0.0125 , (b) t = 0.025 .

Two sinusoidal waves combining in a medium are described by the equations y_1 = (3.0 cm) sin pi (x+ 0.60t) and y_2 = (3.0 cm) sin pi (x-0.06 t) where, x is in centimetres and t is in seconds. Determine the maximum displacement of the medium at (a)x=0.250 cm, (b)x=0.500 cm and (c) x=1.50 cm. (d) Find the three smallest values of x corresponding to antinodes.

The phase difference between two SHM y_(1) = 10 sin (10 pi t + (pi)/(3)) and y_(2) = 12 sin (8 pi t + (pi)/(4)) to t = 0.5s is

A wave is represented by the equation y=(0.001mm)sin[(50s^-1t+(2.0m^-1)x]

Two coherent waves represented by y_(1) = A sin ((2 pi)/(lambda) x_(1) - omega t + (pi)/(4)) and y_(2) = A sin (( 2pi)/(lambda) x_(2) - omega t + (pi)/(6)) are superposed. The two waves will produce