A wire under tension vibrates with a fre...

A wire under tension vibrates with a frequency of 450Hz. What would be the fundamental frequency, if the wire were half as long, twice as thick and under one fourth tension ?

225 Hz

190 Hz

247 Hz

174 Hz

Text Solution

Verified by Experts

The correct Answer is:

Topper's Solved these Questions

OSCILLATIONS AND WAVES
MTG GUIDE|Exercise AIPMT / NEET MCQs|43 Videos
OSCILLATIONS AND WAVES
MTG GUIDE|Exercise NEET CAFÉ TOPICWISE PRACTICE QUESTIONS|200 Videos
MOTION OF SYSTEM OF PARTICLES AND RIGID BODY
MTG GUIDE|Exercise AIPMT / NEET (MCQs)|37 Videos
PHYSICAL WORLD AND MEASUREMENT
MTG GUIDE|Exercise AIPMT / NEET MCQ|14 Videos

Similar Questions

Explore conceptually related problems

A wire under a tension vibrates with fundamental frequency of 256 Hz . What should be the fundamental frequency of the wire if its length is half, thickness twice and one - fourth of the tension ?

The tension in a sonometer wire is increased to nine times. Then the fundamental frequency of the wire is

A wire under tension vibrates with a fundamental frequency of 600 Hz. If the length of the wire is doubled, the radius is halved and the wire is made to vibrate under one-ninth the tension. Then, the fundamental frequency will became

In law of tension, the fundamental frequency of vibrating string is

If the tension of sonometer’s wire increases four times then the fundamental frequency of the wire will increase by

A string vibrating with a fundamental frequency of 8 Hz has tension T_(1) . This string vibrates with a fundamental frequency of 15 Hz when the tension is T_(2) . Find the fundamental frequency of the string when its tension is T_(1) + T_(2) .

The fundamental frequency of vibration of a wire fo certain length is 200 Hz. What will be the fundamental frequency of vibration, if the tension is made double and length of the wire is also doubled ?

The frequency of a stretched uniform wire under tension is in resonance with the fundamental frequency of a closed tube. If the tension in the wire is increased by 8 N , it is in resonance with the first overtone of the closed tube. The initial tension in the wire is

A stretched sonometer wire resonates at a frequency of 350 Hz and at the next higher frequency of 420 Hz. The fundamental frequency of this wire is

MTG GUIDE-OSCILLATIONS AND WAVES -CHECK YOUR NEET VITALS

In damped oscillations, the amplitude is reduced to one-third of its i...
Text Solution
|
The x-t graph of a particle undergoing SHM is as shown in figure. The ...
Text Solution
|
Two simple harmonic motions are represented by y(1)=5 [sin 2 pi t + sq...
Text Solution
|
A particle is performing SHM along x-axis with amplitude 6.0 cm and ti...
Text Solution
|
Starting from the origin, a body oscillates simple harmonically with a...
Text Solution
|
Two linear SHM of equal amplitudes A and frequencies omega and 2omega ...
Text Solution
|
A particle, with restoring force proportional to displacement and resu...
Text Solution
|
A simple pendulum has a length I. The inertial and gravitational masse...
Text Solution
|
The transverse displacement y(x, t) of a wave on a string is given by ...
Text Solution
|
A sonometer wire of length 1.5m is made of steel. The tension in it pr...
Text Solution
|
The phase difference between two points separated by 0.8 m in a wave o...
Text Solution
|
A wire under tension vibrates with a frequency of 450Hz. What would be...
Text Solution
|
Equation of a stationary wave is y=10 sin ((pi x)/(4)) cos 20 pi t Di...
Text Solution
|
the speed of sound in hydrogen at NTP is 1270m/s. then the speed in m/...
Text Solution
|
An object of specific gravity rho is hung from a thin copper wire. The...
Text Solution
|
A closed organ pipe has fundamental frequency 100Hz. What frequencies ...
Text Solution
|
A bus is moving with a velocity of 5 ms^(-1) towards a huge wall. The ...
Text Solution
|
A string is under tension so that its length is increased by 1//n time...
Text Solution
|
A source of sound gives 5 beats when sounded with another source of fr...
Text Solution
|
A transverse wave is described by the equation y=y(0)sin4pi(upsilont...
Text Solution
|