Standing Waves
PHXI15:WAVES

354937 A metre-long open at one end, with a movable piston at the other end, shows resonance with a fixed frequency source (A tunning fork of frequency \(340\;Hz\)) when the tube length is 25.5 \(cm\) or \(79.3\;cm\). Estimate the speed of sound in air at the temperature of the experiment. The edge effect may be neglected.

1 \(336\;m/s\)
2 \(331\;m/s\)
3 \(356\;m/s\)
4 \(366\;m/s\)
PHXI15:WAVES

354938 For a closed organ pipe, the fundamental frequency is \(100\,Hz\). The \({5^{\text {th }}}\) overtone is

1 \(1100\,Hz\)
2 \(900\,Hz\)
3 \(500\,Hz\)
4 \(600\,Hz\)
PHXI15:WAVES

354939 Two closed organ pipes \(A\) and \(B\), have the same length. \(A\) is wider than \(B\). The resonate in fundamental mode at frequencies \(n_{A}\) and \(n_{B}\) respectively then

1 \(n_{A}>n_{B}\)
2 \(\quad n_{A} < n_{B}\)
3 Either (1) or (2) depending on the ratio of their diameters
4 \(n_{A}=n_{B}\)
PHXI15:WAVES

354940 While measuring the speed of sound by performing a resonance column experiment a student gets the first resonance condition at a column length of \(18\;cm\) during winter. Repeating the same experiment during summer, she measures the coulmn length to be \(x\,cm\) for the, second resonance. Then

1 \(18>x\)
2 \(x>54\)
3 \(54>x>36\)
4 \(36>x>18\)
PHXI15:WAVES

354941 A tube with both ends closed has same set of natural frequency as

1 One end closed organ pipe
2 Both end open organ pipe
3 Vibratory string fixed at both ends
4 Vibratory string fixed at one end
PHXI15:WAVES

354937 A metre-long open at one end, with a movable piston at the other end, shows resonance with a fixed frequency source (A tunning fork of frequency \(340\;Hz\)) when the tube length is 25.5 \(cm\) or \(79.3\;cm\). Estimate the speed of sound in air at the temperature of the experiment. The edge effect may be neglected.

1 \(336\;m/s\)
2 \(331\;m/s\)
3 \(356\;m/s\)
4 \(366\;m/s\)
PHXI15:WAVES

354938 For a closed organ pipe, the fundamental frequency is \(100\,Hz\). The \({5^{\text {th }}}\) overtone is

1 \(1100\,Hz\)
2 \(900\,Hz\)
3 \(500\,Hz\)
4 \(600\,Hz\)
PHXI15:WAVES

354939 Two closed organ pipes \(A\) and \(B\), have the same length. \(A\) is wider than \(B\). The resonate in fundamental mode at frequencies \(n_{A}\) and \(n_{B}\) respectively then

1 \(n_{A}>n_{B}\)
2 \(\quad n_{A} < n_{B}\)
3 Either (1) or (2) depending on the ratio of their diameters
4 \(n_{A}=n_{B}\)
PHXI15:WAVES

354940 While measuring the speed of sound by performing a resonance column experiment a student gets the first resonance condition at a column length of \(18\;cm\) during winter. Repeating the same experiment during summer, she measures the coulmn length to be \(x\,cm\) for the, second resonance. Then

1 \(18>x\)
2 \(x>54\)
3 \(54>x>36\)
4 \(36>x>18\)
PHXI15:WAVES

354941 A tube with both ends closed has same set of natural frequency as

1 One end closed organ pipe
2 Both end open organ pipe
3 Vibratory string fixed at both ends
4 Vibratory string fixed at one end
PHXI15:WAVES

354937 A metre-long open at one end, with a movable piston at the other end, shows resonance with a fixed frequency source (A tunning fork of frequency \(340\;Hz\)) when the tube length is 25.5 \(cm\) or \(79.3\;cm\). Estimate the speed of sound in air at the temperature of the experiment. The edge effect may be neglected.

1 \(336\;m/s\)
2 \(331\;m/s\)
3 \(356\;m/s\)
4 \(366\;m/s\)
PHXI15:WAVES

354938 For a closed organ pipe, the fundamental frequency is \(100\,Hz\). The \({5^{\text {th }}}\) overtone is

1 \(1100\,Hz\)
2 \(900\,Hz\)
3 \(500\,Hz\)
4 \(600\,Hz\)
PHXI15:WAVES

354939 Two closed organ pipes \(A\) and \(B\), have the same length. \(A\) is wider than \(B\). The resonate in fundamental mode at frequencies \(n_{A}\) and \(n_{B}\) respectively then

1 \(n_{A}>n_{B}\)
2 \(\quad n_{A} < n_{B}\)
3 Either (1) or (2) depending on the ratio of their diameters
4 \(n_{A}=n_{B}\)
PHXI15:WAVES

354940 While measuring the speed of sound by performing a resonance column experiment a student gets the first resonance condition at a column length of \(18\;cm\) during winter. Repeating the same experiment during summer, she measures the coulmn length to be \(x\,cm\) for the, second resonance. Then

1 \(18>x\)
2 \(x>54\)
3 \(54>x>36\)
4 \(36>x>18\)
PHXI15:WAVES

354941 A tube with both ends closed has same set of natural frequency as

1 One end closed organ pipe
2 Both end open organ pipe
3 Vibratory string fixed at both ends
4 Vibratory string fixed at one end
NEET Test Series from KOTA - 10 Papers In MS WORD WhatsApp Here
PHXI15:WAVES

354937 A metre-long open at one end, with a movable piston at the other end, shows resonance with a fixed frequency source (A tunning fork of frequency \(340\;Hz\)) when the tube length is 25.5 \(cm\) or \(79.3\;cm\). Estimate the speed of sound in air at the temperature of the experiment. The edge effect may be neglected.

1 \(336\;m/s\)
2 \(331\;m/s\)
3 \(356\;m/s\)
4 \(366\;m/s\)
PHXI15:WAVES

354938 For a closed organ pipe, the fundamental frequency is \(100\,Hz\). The \({5^{\text {th }}}\) overtone is

1 \(1100\,Hz\)
2 \(900\,Hz\)
3 \(500\,Hz\)
4 \(600\,Hz\)
PHXI15:WAVES

354939 Two closed organ pipes \(A\) and \(B\), have the same length. \(A\) is wider than \(B\). The resonate in fundamental mode at frequencies \(n_{A}\) and \(n_{B}\) respectively then

1 \(n_{A}>n_{B}\)
2 \(\quad n_{A} < n_{B}\)
3 Either (1) or (2) depending on the ratio of their diameters
4 \(n_{A}=n_{B}\)
PHXI15:WAVES

354940 While measuring the speed of sound by performing a resonance column experiment a student gets the first resonance condition at a column length of \(18\;cm\) during winter. Repeating the same experiment during summer, she measures the coulmn length to be \(x\,cm\) for the, second resonance. Then

1 \(18>x\)
2 \(x>54\)
3 \(54>x>36\)
4 \(36>x>18\)
PHXI15:WAVES

354941 A tube with both ends closed has same set of natural frequency as

1 One end closed organ pipe
2 Both end open organ pipe
3 Vibratory string fixed at both ends
4 Vibratory string fixed at one end
PHXI15:WAVES

354937 A metre-long open at one end, with a movable piston at the other end, shows resonance with a fixed frequency source (A tunning fork of frequency \(340\;Hz\)) when the tube length is 25.5 \(cm\) or \(79.3\;cm\). Estimate the speed of sound in air at the temperature of the experiment. The edge effect may be neglected.

1 \(336\;m/s\)
2 \(331\;m/s\)
3 \(356\;m/s\)
4 \(366\;m/s\)
PHXI15:WAVES

354938 For a closed organ pipe, the fundamental frequency is \(100\,Hz\). The \({5^{\text {th }}}\) overtone is

1 \(1100\,Hz\)
2 \(900\,Hz\)
3 \(500\,Hz\)
4 \(600\,Hz\)
PHXI15:WAVES

354939 Two closed organ pipes \(A\) and \(B\), have the same length. \(A\) is wider than \(B\). The resonate in fundamental mode at frequencies \(n_{A}\) and \(n_{B}\) respectively then

1 \(n_{A}>n_{B}\)
2 \(\quad n_{A} < n_{B}\)
3 Either (1) or (2) depending on the ratio of their diameters
4 \(n_{A}=n_{B}\)
PHXI15:WAVES

354940 While measuring the speed of sound by performing a resonance column experiment a student gets the first resonance condition at a column length of \(18\;cm\) during winter. Repeating the same experiment during summer, she measures the coulmn length to be \(x\,cm\) for the, second resonance. Then

1 \(18>x\)
2 \(x>54\)
3 \(54>x>36\)
4 \(36>x>18\)
PHXI15:WAVES

354941 A tube with both ends closed has same set of natural frequency as

1 One end closed organ pipe
2 Both end open organ pipe
3 Vibratory string fixed at both ends
4 Vibratory string fixed at one end