355057 A transverse harmonic wave is propagating along a taut string. Tension in the string is 50 \(N\) and its linear mass density is \(0.02 {~kg} {~m}^{-1}\). The string is driven by an 80 \(Hz\) oscillator tied to one end oscillating with an amplitude of 1 \(mm\) . The other end of the string is terminated so that all the wave energy is absorbed and there is no reflection. Calculate the average energy of the wave (in \(mJ\) ) on a 1.0 \(m\) long segment of the string. (Use \(\pi^{2}=10\) )
355057 A transverse harmonic wave is propagating along a taut string. Tension in the string is 50 \(N\) and its linear mass density is \(0.02 {~kg} {~m}^{-1}\). The string is driven by an 80 \(Hz\) oscillator tied to one end oscillating with an amplitude of 1 \(mm\) . The other end of the string is terminated so that all the wave energy is absorbed and there is no reflection. Calculate the average energy of the wave (in \(mJ\) ) on a 1.0 \(m\) long segment of the string. (Use \(\pi^{2}=10\) )
355057 A transverse harmonic wave is propagating along a taut string. Tension in the string is 50 \(N\) and its linear mass density is \(0.02 {~kg} {~m}^{-1}\). The string is driven by an 80 \(Hz\) oscillator tied to one end oscillating with an amplitude of 1 \(mm\) . The other end of the string is terminated so that all the wave energy is absorbed and there is no reflection. Calculate the average energy of the wave (in \(mJ\) ) on a 1.0 \(m\) long segment of the string. (Use \(\pi^{2}=10\) )
355057 A transverse harmonic wave is propagating along a taut string. Tension in the string is 50 \(N\) and its linear mass density is \(0.02 {~kg} {~m}^{-1}\). The string is driven by an 80 \(Hz\) oscillator tied to one end oscillating with an amplitude of 1 \(mm\) . The other end of the string is terminated so that all the wave energy is absorbed and there is no reflection. Calculate the average energy of the wave (in \(mJ\) ) on a 1.0 \(m\) long segment of the string. (Use \(\pi^{2}=10\) )
355057 A transverse harmonic wave is propagating along a taut string. Tension in the string is 50 \(N\) and its linear mass density is \(0.02 {~kg} {~m}^{-1}\). The string is driven by an 80 \(Hz\) oscillator tied to one end oscillating with an amplitude of 1 \(mm\) . The other end of the string is terminated so that all the wave energy is absorbed and there is no reflection. Calculate the average energy of the wave (in \(mJ\) ) on a 1.0 \(m\) long segment of the string. (Use \(\pi^{2}=10\) )