Embibe Experts Solutions for Chapter: Stationary Waves, Exercise 1: MHT-CET 2017

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Embibe Experts Physics Solutions for Exercise - Embibe Experts Solutions for Chapter: Stationary Waves, Exercise 1: MHT-CET 2017

Attempt the free practice questions on Chapter 14: Stationary Waves, Exercise 1: MHT-CET 2017 with hints and solutions to strengthen your understanding. EMBIBE CHAPTER WISE PREVIOUS YEAR PAPERS FOR PHYSICS solutions are prepared by Experienced Embibe Experts.

Questions from Embibe Experts Solutions for Chapter: Stationary Waves, Exercise 1: MHT-CET 2017 with Hints & Solutions

EASY
MHT-CET
IMPORTANT

A stretched string fixed at both ends has m nodes, then the length of the string will be

EASY
MHT-CET
IMPORTANT

A stretched wire of length 260 cm is set into vibrations. It is divided into three segments whose frequencies are in the ratio 2:3:4 . Their lengths must be

HARD
MHT-CET
IMPORTANT

Find the wrong statement form the following about the equation of stationary wave given by Y=0.04cosπxsin50πt m where t is in second. Then for the stationary wave.

EASY
MHT-CET
IMPORTANT

Two identical wires are vibrating in unison. If the tension in one of the wires is increased by 2%, five beats are produced per second by the two vibrating wires. The initial frequency of each wire is 1.02=1.01

EASY
MHT-CET
IMPORTANT

A closed organ pipe and an open organ pipe have their first overtones identical in frequency. Their lengths are in the ratio

MEDIUM
MHT-CET
IMPORTANT

A pipe open at one end has length 0.8 m. At the open end of the tube a string 0.5 m long is vibrating in its 1st overtone and resonates with fundamental frequency of pipe. If tension in the string is 50 N, the mass of string is (speed of sound =320 m s-1)

MEDIUM
MHT-CET
IMPORTANT

On closing an open organ pipe from one end, it is noticed that the frequency of third harmonic is 50 Hz more than the fundamental frequency of vibration in open organ pipe. The fundamental frequency of open organ pipe is

EASY
MHT-CET
IMPORTANT

In Melde's experiment, when the tension decreases by 0.009 kg-wt, the number of loops changes from 4 to 5. The initial tension is