Home
Class 11
PHYSICS
Fundamental frequency of pipe is 100 Hz ...

Fundamental frequency of pipe is 100 Hz and other two frequencies are 300 Hz and 500 Hz then

A

Pipe is open at both the ends

B

Pipe is closed at both the ends

C

One end open and another end is closed

D

None of the above

Text Solution

AI Generated Solution

The correct Answer is:
To solve the problem, we need to determine the type of pipe based on the given fundamental frequency and the other two frequencies. Here’s a step-by-step breakdown of the solution: ### Step 1: Understand the Frequencies We are given: - Fundamental frequency (f1) = 100 Hz - Other frequencies = 300 Hz and 500 Hz ### Step 2: Identify the Type of Pipe There are three types of pipes: 1. Open at both ends 2. Closed at one end and open at the other 3. Closed at both ends ### Step 3: Analyze the Frequencies for Each Type of Pipe #### Case 1: Open at Both Ends - The fundamental frequency (first harmonic) is given by: \[ f_1 = \frac{V}{2L} \] - The second harmonic (first overtone) is: \[ f_2 = \frac{V}{L} \] - The third harmonic (second overtone) is: \[ f_3 = \frac{3V}{2L} \] - The frequencies would be in the ratio 1:2:3, which does not match our frequencies (100 Hz, 300 Hz, 500 Hz). #### Case 2: Closed at One End and Open at the Other - The fundamental frequency is: \[ f_1 = \frac{V}{4L} \] - The first overtone (third harmonic) is: \[ f_2 = \frac{3V}{4L} \] - The second overtone (fifth harmonic) is: \[ f_3 = \frac{5V}{4L} \] - The frequencies would be in the ratio 1:3:5. If we set \(f_1 = 100\) Hz, we can find: - \(f_2 = 3 \times 100 = 300\) Hz - \(f_3 = 5 \times 100 = 500\) Hz - This matches our given frequencies. #### Case 3: Closed at Both Ends - The fundamental frequency is: \[ f_1 = \frac{V}{2L} \] - The second harmonic (first overtone) is: \[ f_2 = \frac{2V}{L} \] - The third harmonic (second overtone) is: \[ f_3 = \frac{3V}{2L} \] - The frequencies would be in the ratio 1:2:3, which again does not match our frequencies. ### Conclusion Based on the analysis, the only configuration that matches the fundamental frequency of 100 Hz and the other two frequencies of 300 Hz and 500 Hz is a pipe that is closed at one end and open at the other. ### Final Answer The pipe is closed at one end and open at the other. ---
Promotional Banner

Topper's Solved these Questions

  • WAVES AND SOUND

    ERRORLESS |Exercise Doppler s Effect|65 Videos
  • WAVES AND SOUND

    ERRORLESS |Exercise Musical Sound|32 Videos
  • WAVES AND SOUND

    ERRORLESS |Exercise Vibration of string|52 Videos
  • VECTORS

    ERRORLESS |Exercise Exercise|223 Videos
  • WORK , ENERGY , POWER AND COLLISION

    ERRORLESS |Exercise Self Evaluation Test|19 Videos

Similar Questions

Explore conceptually related problems

The fundamental frequencies of two open pipes of different length are 200 Hz and 300 Hz. If they are joined to form a longer pipe then the frequency of the third harmonic of the longer pipe will be

Fundamental frequency of a closed of a pipe is 100 and that of an open pipe is 200 Hz. Match following (V_(s) = 330m//s)

If fundamental frequency of closed pipe is 50 Hz, then frequency of 2^(nd) ovetone is

The fundamental frequency of an open is 450 Hz and that of a closed pipe is 350 Hz . The two pipes are joined together to form a longer pipe . Find the fundamental frequency of this new pipe . Take velocity of sound are 330 m s^(-1) .

Fundamental frequency of two identical strings x and y are 450Hz and 300Hz resp. then find the ratio of tension in string x and y will be

A violin string vibrates with fundamental frequency of 510 Hz. What is the frequency of first overtone? ( Ans: n1 = 1020 Hz )

If the fundamental frequency of a wave in an open pipe is 540 Hz , the frequency of the (p - 1)^(th) harmonic is "________" Hz.

the fundamental frequency of a closed organ pipe is 50 Hz . The frequency of the second overtone is

An organ piep has a fundamental frequency of 100 Hz. Its second overtone is 500 Hz. What is the nature of the pipe ?

ERRORLESS -WAVES AND SOUND-Organ pipe
  1. Standing stationary waves can be obtained in an air column even if the...

    Text Solution

    |

  2. The stationary wavey = 2a sin kx cos omega t in a closed organ pipe is...

    Text Solution

    |

  3. Stationary waves are setup in an air column. Velocity of sound in air ...

    Text Solution

    |

  4. An open pipe of length l vibrates in fundamental mode. The pressure va...

    Text Solution

    |

  5. Fundamental frequency of pipe is 100 Hz and other two frequencies are ...

    Text Solution

    |

  6. Fundamental frequency of an open pipe of length 0.5 m is equal to the ...

    Text Solution

    |

  7. In a closed organ pipe the frequency of fundamental note is 50 Hz . Th...

    Text Solution

    |

  8. On producing the waves of frequency 1000 Hz in a kundt's tube the tota...

    Text Solution

    |

  9. What is the base frequency if a pipe gives notes of frequencies 425, 2...

    Text Solution

    |

  10. A student determines the velocity of sound with the help of a closed o...

    Text Solution

    |

  11. An open pipe of length 33 cm resonates with frequency of 100 Hz . If t...

    Text Solution

    |

  12. In a resonance tube the first resonance with a tuning fork occurs at 1...

    Text Solution

    |

  13. Two closed organ pipes of length 100 cm and 101 cm 16 beats is 20 sec....

    Text Solution

    |

  14. In open organ pipe, if fundamental frequency is n then the other frequ...

    Text Solution

    |

  15. If in an experiment for determination of velocity of sound by resonanc...

    Text Solution

    |

  16. An organ pipe, open from both end produces 5 beats per second when vib...

    Text Solution

    |

  17. In one metre long open pipe what is the harmonic of resonance obtained...

    Text Solution

    |

  18. An organ pipe open at one end is vibrating in first overtone and is in...

    Text Solution

    |

  19. In a resonance pipe the first and second resonance are obtained at dep...

    Text Solution

    |

  20. An open tube is in resonance with string (frequency of vibration of tu...

    Text Solution

    |