8 RBTS PAPER(PHYSICS)
8 RBTS PAPER

164382 Water waves are :

1 Longitudinal
2 Transverse
3 Both longitunal and transverse
4 Neither longitudinal nor transverse
8 RBTS PAPER

164401 A simple pendulum executing S.H.M. about \(x=0\) with period \(T\) and amplitude \(A\). Its speed when at a distance \(\frac{A}{2}\) is

1 \(\frac{\pi \mathrm{A} \sqrt{3}}{\mathrm{~T}}\)
2 \(\frac{\pi \mathrm{A} \sqrt{15}}{\mathrm{~T}}\)
3 \(\frac{\pi A}{2 T}\)
4 \(\frac{\pi A}{T}\)
8 RBTS PAPER

164365 Which one of the following is true for progressive waves:

1 Particle velocity \(=-\) wave velocity \(\times\) slope of displacement curve
2 Particle velocity \(=\) wave velocity \(\times\) slope of the displacement curve
3 Particle velocity \(=\frac{\text { wave velocity }}{\text { slope of the displacement curve }}\) -wave velocity
4 Particle velocity \(=\overline{\text { slope of the displacement curve }}\)
8 RBTS PAPER

164366 The displacement \(y\) of a wave travelling in the \(x\)-direction is given by
\( y=10^{-4} \sin (600 t-2 x+\pi / 3) \text { metre, } \)
where \(\mathbf{x}\) is expressed in metre and \(t\) in second. The speed of the wave-motion, in \(\mathrm{ms}^{-1}\), is :

1 200
2 300
3 600
4 1200.
8 RBTS PAPER

164367 Small amplitude progressive waves in a stretched string have a speed of \(100 \mathrm{~cm} \mathrm{~s}^{-1}\) and frequency \(100 \mathrm{~Hz}\). The phase difference between two points \(2.75 \mathrm{~cm}\) a part on the string, in radian, is :

1 Zero
2 \(11 \pi / 2\)
3 \(\pi / 4\)
4 \(3 \pi / 8\).
8 RBTS PAPER

164382 Water waves are :

1 Longitudinal
2 Transverse
3 Both longitunal and transverse
4 Neither longitudinal nor transverse
8 RBTS PAPER

164401 A simple pendulum executing S.H.M. about \(x=0\) with period \(T\) and amplitude \(A\). Its speed when at a distance \(\frac{A}{2}\) is

1 \(\frac{\pi \mathrm{A} \sqrt{3}}{\mathrm{~T}}\)
2 \(\frac{\pi \mathrm{A} \sqrt{15}}{\mathrm{~T}}\)
3 \(\frac{\pi A}{2 T}\)
4 \(\frac{\pi A}{T}\)
8 RBTS PAPER

164365 Which one of the following is true for progressive waves:

1 Particle velocity \(=-\) wave velocity \(\times\) slope of displacement curve
2 Particle velocity \(=\) wave velocity \(\times\) slope of the displacement curve
3 Particle velocity \(=\frac{\text { wave velocity }}{\text { slope of the displacement curve }}\) -wave velocity
4 Particle velocity \(=\overline{\text { slope of the displacement curve }}\)
8 RBTS PAPER

164366 The displacement \(y\) of a wave travelling in the \(x\)-direction is given by
\( y=10^{-4} \sin (600 t-2 x+\pi / 3) \text { metre, } \)
where \(\mathbf{x}\) is expressed in metre and \(t\) in second. The speed of the wave-motion, in \(\mathrm{ms}^{-1}\), is :

1 200
2 300
3 600
4 1200.
8 RBTS PAPER

164367 Small amplitude progressive waves in a stretched string have a speed of \(100 \mathrm{~cm} \mathrm{~s}^{-1}\) and frequency \(100 \mathrm{~Hz}\). The phase difference between two points \(2.75 \mathrm{~cm}\) a part on the string, in radian, is :

1 Zero
2 \(11 \pi / 2\)
3 \(\pi / 4\)
4 \(3 \pi / 8\).
8 RBTS PAPER

164382 Water waves are :

1 Longitudinal
2 Transverse
3 Both longitunal and transverse
4 Neither longitudinal nor transverse
8 RBTS PAPER

164401 A simple pendulum executing S.H.M. about \(x=0\) with period \(T\) and amplitude \(A\). Its speed when at a distance \(\frac{A}{2}\) is

1 \(\frac{\pi \mathrm{A} \sqrt{3}}{\mathrm{~T}}\)
2 \(\frac{\pi \mathrm{A} \sqrt{15}}{\mathrm{~T}}\)
3 \(\frac{\pi A}{2 T}\)
4 \(\frac{\pi A}{T}\)
8 RBTS PAPER

164365 Which one of the following is true for progressive waves:

1 Particle velocity \(=-\) wave velocity \(\times\) slope of displacement curve
2 Particle velocity \(=\) wave velocity \(\times\) slope of the displacement curve
3 Particle velocity \(=\frac{\text { wave velocity }}{\text { slope of the displacement curve }}\) -wave velocity
4 Particle velocity \(=\overline{\text { slope of the displacement curve }}\)
8 RBTS PAPER

164366 The displacement \(y\) of a wave travelling in the \(x\)-direction is given by
\( y=10^{-4} \sin (600 t-2 x+\pi / 3) \text { metre, } \)
where \(\mathbf{x}\) is expressed in metre and \(t\) in second. The speed of the wave-motion, in \(\mathrm{ms}^{-1}\), is :

1 200
2 300
3 600
4 1200.
8 RBTS PAPER

164367 Small amplitude progressive waves in a stretched string have a speed of \(100 \mathrm{~cm} \mathrm{~s}^{-1}\) and frequency \(100 \mathrm{~Hz}\). The phase difference between two points \(2.75 \mathrm{~cm}\) a part on the string, in radian, is :

1 Zero
2 \(11 \pi / 2\)
3 \(\pi / 4\)
4 \(3 \pi / 8\).
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8 RBTS PAPER

164382 Water waves are :

1 Longitudinal
2 Transverse
3 Both longitunal and transverse
4 Neither longitudinal nor transverse
8 RBTS PAPER

164401 A simple pendulum executing S.H.M. about \(x=0\) with period \(T\) and amplitude \(A\). Its speed when at a distance \(\frac{A}{2}\) is

1 \(\frac{\pi \mathrm{A} \sqrt{3}}{\mathrm{~T}}\)
2 \(\frac{\pi \mathrm{A} \sqrt{15}}{\mathrm{~T}}\)
3 \(\frac{\pi A}{2 T}\)
4 \(\frac{\pi A}{T}\)
8 RBTS PAPER

164365 Which one of the following is true for progressive waves:

1 Particle velocity \(=-\) wave velocity \(\times\) slope of displacement curve
2 Particle velocity \(=\) wave velocity \(\times\) slope of the displacement curve
3 Particle velocity \(=\frac{\text { wave velocity }}{\text { slope of the displacement curve }}\) -wave velocity
4 Particle velocity \(=\overline{\text { slope of the displacement curve }}\)
8 RBTS PAPER

164366 The displacement \(y\) of a wave travelling in the \(x\)-direction is given by
\( y=10^{-4} \sin (600 t-2 x+\pi / 3) \text { metre, } \)
where \(\mathbf{x}\) is expressed in metre and \(t\) in second. The speed of the wave-motion, in \(\mathrm{ms}^{-1}\), is :

1 200
2 300
3 600
4 1200.
8 RBTS PAPER

164367 Small amplitude progressive waves in a stretched string have a speed of \(100 \mathrm{~cm} \mathrm{~s}^{-1}\) and frequency \(100 \mathrm{~Hz}\). The phase difference between two points \(2.75 \mathrm{~cm}\) a part on the string, in radian, is :

1 Zero
2 \(11 \pi / 2\)
3 \(\pi / 4\)
4 \(3 \pi / 8\).
8 RBTS PAPER

164382 Water waves are :

1 Longitudinal
2 Transverse
3 Both longitunal and transverse
4 Neither longitudinal nor transverse
8 RBTS PAPER

164401 A simple pendulum executing S.H.M. about \(x=0\) with period \(T\) and amplitude \(A\). Its speed when at a distance \(\frac{A}{2}\) is

1 \(\frac{\pi \mathrm{A} \sqrt{3}}{\mathrm{~T}}\)
2 \(\frac{\pi \mathrm{A} \sqrt{15}}{\mathrm{~T}}\)
3 \(\frac{\pi A}{2 T}\)
4 \(\frac{\pi A}{T}\)
8 RBTS PAPER

164365 Which one of the following is true for progressive waves:

1 Particle velocity \(=-\) wave velocity \(\times\) slope of displacement curve
2 Particle velocity \(=\) wave velocity \(\times\) slope of the displacement curve
3 Particle velocity \(=\frac{\text { wave velocity }}{\text { slope of the displacement curve }}\) -wave velocity
4 Particle velocity \(=\overline{\text { slope of the displacement curve }}\)
8 RBTS PAPER

164366 The displacement \(y\) of a wave travelling in the \(x\)-direction is given by
\( y=10^{-4} \sin (600 t-2 x+\pi / 3) \text { metre, } \)
where \(\mathbf{x}\) is expressed in metre and \(t\) in second. The speed of the wave-motion, in \(\mathrm{ms}^{-1}\), is :

1 200
2 300
3 600
4 1200.
8 RBTS PAPER

164367 Small amplitude progressive waves in a stretched string have a speed of \(100 \mathrm{~cm} \mathrm{~s}^{-1}\) and frequency \(100 \mathrm{~Hz}\). The phase difference between two points \(2.75 \mathrm{~cm}\) a part on the string, in radian, is :

1 Zero
2 \(11 \pi / 2\)
3 \(\pi / 4\)
4 \(3 \pi / 8\).