i need help with this question?
If the speed increased and the wavelngth stayed the same then the frequency would have to increase. Because Speed=Frequency*Wavelength Hope that helps
tension; under a tensile stress ========================
Tension or tensile stress is what you described in the question.
Soap breaks the surface tension of water. Pepper will only float where there is strong surface tension.
It is surface tension.
The tension on a rubber band affects pitch by changing the frequency at which the rubber band vibrates. Increasing tension typically increases pitch as it results in higher frequency vibrations, and decreasing tension lowers the pitch by lowering the frequency of vibration.
Increasing the tension of a spring affects the speed at which a wave travels along it. Higher tension leads to a faster wave speed. Additionally, increasing tension can also change the frequency and wavelength of the wave.
If tension is increased, the wavelength of the wave will decrease. This is because the speed of the wave is directly proportional to the square root of the tension. So, if tension increases (and frequency remains constant), the speed of the wave will increase, resulting in a shorter wavelength.
Replace the drumhead with a different one, or put more tension on it.
Frequency(f)1 of vibration(or waves ) produced on the string is directly proportional to square root of tension in the string, inversely proportional to square root of linear mass density of string, inversely proportional to length of string. Changing any of one or more of these will change the frequency. A sonometer will serve as a good experimenting device. The various parameters can be changed and change in frequency can be observed. 1. Frequency here refers to natural frequency, for forced vibrations the frequency will be same as the frequency of force that produces the vibration.
Changing both the length and tension of a string simultaneously will greatly affect its frequency and pitch. Increasing tension while decreasing length will raise the pitch, and vice versa. This is due to the relationship between frequency, tension, and length in vibrating strings.
You can change the frequency of sound by altering the rate at which sound waves vibrate. This can be done by changing the speed, tension, or mass of the vibrating source. For example, tightening a guitar string will increase its frequency, resulting in a higher pitch sound.
A tympani is a large kettle drum that produces sound when the player strikes the drumhead with a mallet or drumstick. The vibrations from the impact travel through the drumhead, causing it to resonate and produce sound waves in the air. The size and tension of the drumhead, as well as the force and location of the strike, all influence the pitch and volume of the sound produced.
Percussion instruments change pitch by altering the tension of the drumhead or striking area, affecting the vibration frequency when played. Other percussion instruments, like xylophones or tambourines, produce different pitches by varying the size or material of the striking surface. Some instruments, like timpani or hand drums, can also be tuned to specific pitches by adjusting the tension of the drumheads.
Changing the length of a string will affect its frequency. Shortening the string will increase the frequency, while lengthening the string will decrease the frequency. This is because shorter strings vibrate more quickly, producing higher pitches, whereas longer strings vibrate more slowly, resulting in lower pitches.
Increasing the duration of the rest period increased the duration of the subsequent maximal tension.
The relationship between frequency and tension in a vibrating system is such that as frequency increases, tension also needs to increase in order to maintain the same wavelength. This is because higher frequencies result in shorter wavelengths, which requires higher tension to balance the forces acting on the system. Ultimately, tension and frequency are directly proportional in a vibrating system.