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If the fundamental frequency of a pipe c...

If the fundamental frequency of a pipe closed at one is `512 H_(Z)` . The frequency of a pipe of the same dimension but open at both ends will be

A

`1024 h_(Z)`

B

`512 H_(Z)`

C

`256 H_(Z)`

D

`128 H_(Z)`

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The correct Answer is:
To solve the problem of finding the frequency of a pipe open at both ends given the fundamental frequency of a pipe closed at one end, we can follow these steps: ### Step-by-Step Solution: 1. **Identify the Given Information:** - The fundamental frequency of the closed pipe (Fc) is given as 512 Hz. 2. **Understand the Relationship for Closed Pipes:** - For a pipe closed at one end, the relationship between the wavelength (λ) and the length of the pipe (L) is given by: \[ \frac{\lambda}{4} = L \] - From this, we can derive the wavelength: \[ \lambda = 4L \] 3. **Determine the Fundamental Frequency for Closed Pipes:** - The fundamental frequency (Fc) is related to the speed of sound (C) and the wavelength (λ) by the formula: \[ F_c = \frac{C}{\lambda} \] - Substituting the expression for λ: \[ F_c = \frac{C}{4L} \] 4. **Understand the Relationship for Open Pipes:** - For a pipe open at both ends, the relationship between the wavelength (λ) and the length of the pipe (L) is given by: \[ \frac{\lambda}{2} = L \] - From this, we can derive the wavelength for the open pipe: \[ \lambda = 2L \] 5. **Determine the Fundamental Frequency for Open Pipes:** - The fundamental frequency (Fo) for an open pipe is given by: \[ F_o = \frac{C}{\lambda} \] - Substituting the expression for λ: \[ F_o = \frac{C}{2L} \] 6. **Relate the Frequencies of Closed and Open Pipes:** - We can express the fundamental frequency of the open pipe in terms of the closed pipe: \[ F_o = 2 \times F_c \] 7. **Calculate the Fundamental Frequency for the Open Pipe:** - Now substituting the value of Fc: \[ F_o = 2 \times 512 \text{ Hz} = 1024 \text{ Hz} \] 8. **Conclusion:** - Therefore, the fundamental frequency of the pipe open at both ends is **1024 Hz**. ### Final Answer: The frequency of a pipe of the same dimension but open at both ends is **1024 Hz**. ---

To solve the problem of finding the frequency of a pipe open at both ends given the fundamental frequency of a pipe closed at one end, we can follow these steps: ### Step-by-Step Solution: 1. **Identify the Given Information:** - The fundamental frequency of the closed pipe (Fc) is given as 512 Hz. 2. **Understand the Relationship for Closed Pipes:** ...
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DC PANDEY ENGLISH-SOUND WAVES-Level 1 Objective
  1. Velocity of sound in vacuum is

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  2. Longitudinal waves are possible in

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  3. If the fundamental frequency of a pipe closed at one is 512 H(Z) . The...

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  4. The temperature at which the velocity of sound in oxygen will be same ...

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  5. A closed organ pipe is excited to vibrate in the third overtone. If is...

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  6. When temperature is increases, the frequency of organ pipe

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  7. When a sound wave travels from water to air , it

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  8. A closed organ pipe and an open organ pipe are tuned to the same funda...

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  9. A sonometer wire under a tension of 10 kg weight is in unsion with a t...

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  10. A tuning fork of frequency 256 h(Z) is moving towards a well with a ve...

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  11. Two sound waves of wavelength 1 m and 1.01 m in a gas produce 10 beats...

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  12. when a source is going away from a stationary observer with the veloci...

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  13. When interference is produced by two progressive waves of equal freque...

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  14. A tuning fork of frequency 500 H(Z) is sounded on a resonance tube . T...

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  15. A vehicle , with a horn of frequency n is moving with a velocity of 30...

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  16. How many frequencies below 1 kH(Z) of natural oscillations of air colu...

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  17. a sound source emits frequency of 180 h(Z) when moving towards a rigid...

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  18. Two sound waves of wavelengths lambda(1) and lambda(2) (lambda (2) gt ...

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  19. A, Band C are three tuning forks. Frequency of A is 350 H(Z) . Beats p...

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  20. The first resonance length of a resonance tube is 40 cm and the second...

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