guitar string 0.65 m long has a tension of 61 N and a mass per unit length of 3.0 g/m. a)What is the speed of waves on the string when it is plucked? b)What is the string's fundamental frequency of vibration when plucked? c)At what other frequencies will this string vibrate? Assume

A steel wire with mass 21.7 g and length 1.30 m is strung on a bass so that the distance from the nut to the bridge is 1.10 m. (a) Compute the linear density of the string.(b) What velocity wave on the string will produce the desired fundamental frequency of the E1 string, 41.2 Hz?(c) Calculate the tension required to obtain the proper frequency.(d) Calculate the wavelength of the string's vibration.(e) What is the wavelength of the sound produced in air? (Assume the speed of sound in air is 343 m/s.)

A Slinky stretched to 4.00 m carries a wave along its length. (a) How fast does the wave propagate if it takes 2.4 s to travel down the Slinky and back again? (b) In the same Slinky, a standing wave with four nodes and three antinodes is set vibrating. What is the frequency of vibrations?

Consider the sinusoidal traveling wave shown in the figure (this is a snapshot at a certain instant of time). Assume the wave travels at 1.0 m/s. a) What is the wave's amplitude? b) What is its wavenumber k? c) What is its angular velocity w? d) What is its period T? e) What is its frequency f?

Two children stretch a jump rope between them and send wave pulses back and forth on it. The rope is 4.5 m long, its mass is 0.64 kg, and the force exerted on it by the children is 47 N. (a) What is the linear mass density of the rope (in kg/m)? kg/m (b) What is the speed of the waves on the rope (in m/s)? m/s

Two children stretch a jump rope between them and send wave pulses back and forth on it. The rope is 4.7 m long, its mass is 0.40 kg, and the force exerted on it by the children is 31 N. (a) What is the linear mass density of the rope (in kg/m)?   kg/m (b) What is the speed of the waves on the rope (in m/s)?   m/s

The wave speed on a string is 775 m/s periodic waves are generated on that string by an oscillator with a period of 1.55 x 10^-4 seconds.  A) What is the wavelength of these periodic waves on the string?   B) At what frequency should the oscillator vibrate so that the wavelength is 28.0 cm?

you have a string with a mass of 0.0121 kg. you stretch the string with a force of 9.57 N, giving it a length of 1.95 m. then, you vibrate the string transversely at precisely the frequency that corresponds to its fourth normal mode; that is, at its fourth harmonic. what is the wavelength of the standing wave created in the string? what is the frequency?

The transverse displacement of a stretched string from equilibrium as a function of time and position is given by:y=0.13 cos(3 x - 18 t). x and y are in m; t is in s. (True, Flase, Greater than, Less than, equal to       The period is ..... 0.1 seconds.       The wavelength is ..... 1 m.       The wave moves in the negative x direction.       The speed of the wave is ..... 6 m/s. Calculate the average power transmitted by the string. Data: mass of a 185 m long piece of the string is 1.79 kg.

A string is 1.5 m long and the wave travels at 250 m/s on the string. 1) What's the fundamental wavlength of the wave on a string? 2) What is the fudamental frequency? 3) What is the frequency of the fourth harmonic?