A transverse sinusoidal wave is generted at one end of long, horizontal string by a bar that moves up and down through a distance of `1.00 cm`. The motion is continuous and is repreated regularly `120` times per second. The string has linear density `90 gm//m` and is kept under a tension of `900 N`. Find :
What is the maximum power (in watt) transferred along the string.

A transverse sinusoidal wave is generted at one end of long, horizontal string by a bar that moves up and down through a distance of 1.00 cm . The motion is continuous and is repreated regularly 120 times per second. The string has linear density 90 gm//m and is kept under a tension of 900 N . Find : The maximum value of the transverse component of the tension (in newton)

A transverse sinusoidal wave is generted at one end of long, horizontal string by a bar that moves up and down through a distance of 1.00 cm . The motion is continuous and is repreated regularly 120 times per second. The string has linear density 90 gm//m and is kept under a tension of 900 N . Find : The maximum value of the transverse component of the tension (in newton)

A transverse sinusoidal wave is generted at one end of long, horizontal string by a bar that moves up and down through a distance of 1.00 cm . The motion is continuous and is repreated regularly 120 times per second. The string has linear density 90 gm//m and is kept under a tension of 900 N . Find : What is the transverse displacement y (in cm ) when the minimum power transfer occurs [Leave the answer in terms of pi wherever it occurs]

A transverse sinusoidal wave is generted at one end of long, horizontal string by a bar that moves up and down through a distance of 1.00 cm . The motion is continuous and is repreated regularly 120 times per second. The string has linear density 90 gm//m and is kept under a tension of 900 N . Find : What is the transverse displacement y (in cm ) when the minimum power transfer occurs [Leave the answer in terms of pi wherever it occurs]

A transverse sinusoidal wave is generated at one end of a long horizontal string by a bar that moves with an amplitude of 1.12 cm . The motion of the bar is continuous and is repeated regularly 120 times per second. The string has linear density of 117g/m. The other end of the string is attached to a mass 4.68 kg. The string passes over a smooth pulley and the mass attached to the other end of the string hangs freely under gravity. The maximum magnitude of the transverse component of tension in the string is

A transverse sinusoidal wave is generated at one end of a long horizontal string by a bar that moves with an amplitude of 1.12 cm . The motion of the bar is continuous and is repeated regularly 120 times per second. The string has linear density of 117g/m. The other end of the string is attached to a mass 4.68 kg. The string passes over a smooth pulley and the mass attached to the other end of the string hangs freely under gravity. The maximum magnitude of the transverse speed is

A transverse sinusoidal wave is generated at one end of a long horizontal string by a bar that moves the end up and down through a distance by 2.0 cm . the motion of bar is continuous and is repeated regularly 125 times per second. If klthe distance between adjacent wave crests is observed to be 15.6 cm and the wave is moving along positive x- direction, and at t=0 the element of the string at x=0 is at mean position y =0 and is moving downward, the equation of the wave is best described by

A transverse sinusoidal wave is generated at one end of a long horizontal string by a bar that moves the end up and down through a distance by 2.0 cm . the motion of bar is continuous and is repeated regularly 125 times per second. If klthe distance between adjacent wave crests is observed to be 15.6 cm and the wave is moving along positive x- direction, and at t=0 the element of the string at x=0 is at mean position y =0 and is moving downward, the equation of the wave is best described by