(c) Sound can travel longitudinally as well as transversely in solids.
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When an engine passes near to a stationary observer then its apparent frequencies occurs in the ratio $5/3$. If the velocity sound is $340 m/s$, than the velocity of engine is .... $m/s$
A train blowing a whistle of frequency $320\,Hz$ approaches an observer standing on the platform at a speed of $66\,m / s$. The frequency observed by the observer will be (given speed of sound $=330\,ms ^{-1}$ ) $.............Hz$.
A train, standing in a station yard, blows a whistle of frequency $400 \,\,Hz$ in still air. The wind starts blowing in the direction from the yard to the station with a speed of $10\,\,m/s.$ Given that the speed of sound in still air is $340\,\,m/s.$ Mark the INCORRECT statement :
Two wires are producing fundamental notes of the same frequency. Change in which of the following factors of one wire will not produce beats between them
Two interfering waves have the same wavelength, frequency, and amplitude. They are traveling in the same direction but are $90^o$ out of phase. Compared to the individual waves, the resultant wave will have the same.
A steel wire with mass per unit length $7.0 \times 10^{-3}\,kg\,m ^{-1}$ is under tension of $70\,N$. The speed of transverse waves in the wire will be $.........m/s$
A source of sound gives five beats per second when sounded with another source of frequency $100\,{s^{ - 1}}$. The second harmonic of the source together with a source of frequency $205\,{s^{ - 1}}$ gives five beats per second. What is the frequency of the source .... ${s^{ - 1}}$
A source of sound $S$ of frequency $500 Hz$ situated between a stationary observer $O$ and a wall $W$, moves towards the wall with a speed of $2 m/s$. If the velocity of sound is $332 m/s$, then the number of beats per second heard by the observer is (approximately)
An earthquake generates both transverse $(S)$ and longitudinal $(P)$ sound waves in the earth. The speed of $S$ waves is about $4.5\,km/s$ and that of $P$ waves is about $8.0\, km/s$. A seismograph records $P$ and $S$ waves from an earthquake. The first $P$ wave arrives $4.0 \,min$ before the first $S$ wave. The epicenter of the earthquake is located at a distance about ..... $km$