The pitch is determined by by the frequency in which the string is swinging, which, in turn, is determined by the speed with which a wave can travel through the string. The higher the tension in the string is, the easier it is for a wave to travel through it, and if the speed of the wave increase, so will the frequency, and by default the pitch of the note. And vice versa.
If I remember my physics correctly :)
The tension of the string. Less tension = lower pitch. This can be achieved by loosening the string or lengthening the string.
To raise the pitch (frequency), put more tension on one end of the string. To lower the pitch, put less tension on one end of the string.For instance, on a guitar, tighten the string for a higher pitch. Loosen the string for a lower pitch.Additionally, if you have a guitar string already mounted and tensioned. You may place your finger in the middle of the string, and the pitch will go up one octave. Each time you halve a tensioned string, it produces a pitch one octave higher.
A stringed instrument creates notes (sounds at certain frequencies) because the string vibrate at a particular frequency. The frequency at which the string vibrates depends on several factors: the mass of the string material; the tension of the string, and the length of the string. The following result in lower frequencies: more mass (the lower strings are thicker and therefore have more mass), less tension (the lower strings are tightened up a little less than the higher strings), and more string length. The violinist adjusts the tension of each string when tuning the instrument. To play different notes, there are 4 strings (lowest is G, then D, A and highest is E). So by pressing his fingers on the string to shorten the length, a higher frequency note is produced. When the violinist gets to half the distance of the original length, the frequency is doubled, and the note is one octave above the natural string note. At this point, the note letter is the same as the original note, one octave below.
Well, the sound of a stringed instrument comes from the vibration of the string. The pitch/note of the string is determined by how tight the string is stretched (a loose string produces a low note, a tight string makes a high note). When you put your finger on the string and press it down on the fret, your adding tension on the string and raising the pitch (making it higher). As you go from fret to fret, if you go to lower frets down the neck (t'ward the base) you get a higher sound. As you move to a higher fret (t'wards the end of the neck) you get a lower sound.
the low E would make the most sense its tuned with the least amount of tension and when you give it a good strum it can go on longer than any others because its hit with more pick than any other in the set even if you where to say "Remove them all" but one string and try this method.
The tension of the string. Less tension = lower pitch. This can be achieved by loosening the string or lengthening the string.
To raise the pitch (frequency), put more tension on one end of the string. To lower the pitch, put less tension on one end of the string. For instance, on a guitar, tighten the string for a higher pitch. Loosen the string for a lower pitch. Additionally, if you have a guitar string already mounted and tensioned. You may place your finger in the middle of the string, and the pitch will go up one octave. Each time you halve a tensioned string, it produces a pitch one octave higher.
The tension of a guitar string directly affects its pitch. When the tension is increased, the pitch of the string becomes higher. Conversely, when the tension is decreased, the pitch becomes lower.
When you increase the length of a guitar string, the pitch produced becomes lower, as the longer string vibrates at a lower frequency. Conversely, when you decrease the length of the string, the pitch becomes higher because the shorter string vibrates at a higher frequency.
"Pressure" is not what causes strings to produce sound. It's "tension" which does that. Adjusting the tuners either increases or decreases the tension, thus altering the audible pitch. Bending the strings also increases the tension. The sound is due to the vibration of the strings. Greater tension causes a shorter, higher frequency wavelength or amplitude which produces a higher pitch. Lesser tension causes a longer, lower frequency wavelength which produces a lower pitch. Depressing the strings onto the fingerboard effectively shortens the length of the string. The more a string is shortened, the shorter its vibrational wavelength and the higher its frequency will become. The location along the fingerboard at which the string is depressed serves the same function as does the nut when a open string is sounded.
The frequency of a string depends on its length, linear density, and tension. Most musical instruments are designed to make it easy to quickly change the tension; this will tune the instrument, or rather, the corresponding string.
To raise the pitch (frequency), put more tension on one end of the string. To lower the pitch, put less tension on one end of the string.For instance, on a guitar, tighten the string for a higher pitch. Loosen the string for a lower pitch.Additionally, if you have a guitar string already mounted and tensioned. You may place your finger in the middle of the string, and the pitch will go up one octave. Each time you halve a tensioned string, it produces a pitch one octave higher.
The velocity, v, of a wave in a taut string is dependant on the tension in the string, T, and the mass distribution (or mass per length ratio), μ.v2 = T/μ
No, it is not recommended to put steel strings on a nylon string guitar as it can damage the instrument. Nylon string guitars are designed to handle the lower tension of nylon strings, while steel strings require a higher tension that can potentially warp the neck or damage the bridge of a nylon string guitar.
Yes, the density of a string affects its frequency of vibration. In general, a denser string will vibrate at a lower frequency while a less dense string will vibrate at a higher frequency when under the same tension. This relationship is described by the equation for wave speed: (v = \sqrt{\frac{T}{\mu}}), where (v) is the wave speed, (T) is the tension in the string, and (\mu) is the linear mass density of the string.
A thick string typically produces a lower pitch when plucked or struck compared to a thin string. The thickness of a string affects its mass and tension, which in turn influences the frequency at which it vibrates and produces sound.
Different pitches are achieved by altering the frequency of vibrations produced by a sound source. Higher pitches have higher frequencies, while lower pitches have lower frequencies. This can be done by adjusting the tension, length, or thickness of a vibrating object, such as a guitar string or vocal cords.