A transverse wave described by
`y=(0.02m)sin[(1.0m^-1)x+(30s^-1)t]`
propagates on a stretched string having a linear mass density of `1.2xx10^-4 kgm^-1`. Find the tension in the string.

A transverse wave described by y = 0.5 sin ( x + 40 t) is propagating on a vibrating string of linear density 0.01 kg/m. If x and y are in metre and time is in second, then the tension in the wire is

The linear density of a string is 1.9 xx 10^(-4)"kg/m." A transverse wave on the string is described by the equation y=(0.021 m) sin[(2.0 m^(-1))x +(30 s^(-1))t]. What are (a) the wave speed and (b) the tension in the string?

A transverse wave propagating on the string can be described by the equation y=2sin(10x+300t) where x and y are in metres and t in second.If the vibrating string has linear density of 0.6times10^(-3)g/cm ,then the tension in the string is

The equation of a transverse wave propagating in a string is given by y = 0.02 sin (x + 30t) where, x and y are in second. If linear density of the string is 1.3 xx 10^(-4)kg//m , then the tension in the string is

The equation of a transverse wave propagating in a string is given by y = 0.02 sin (x + 30t) where, x and y are in second. If linear density of the string is 1.3 xx 10^(-4)kg//m , then the tension in the string is

The equation of a transverse wave on a string is y =(2.0 mm) sin[(15 m^(-1)]x -(900 s^(-1))t]. The linear density is 4.17 g/m. (a) What is the wave speed? (b) What is the tension in the string?

The equation of a transverse wave propagating in a string is y=0.02sin(x-30t) . Hwere x and y are in metre and t is in second. If linear density of the string is 1.3xx10^(-4)kg//m , then the tension in the string is :

A transverse wave propagating on a stretched string of linear density 3 xx 10^(-4) kg m^(-1) is represented by the equation y = 0.2 sin (1.5 x + 60 t) Where x is in metres and t is in seconds . The tension in the string (in newtons) is :

A transverse wave propagating on a stretched string of linear density 3 xx 10^-4 kg-m^-1 is represented by the equation y=0.2 sin (1.5x+60t) Where x is in metre and t is in second. The tension in the string (in Newton) is