From a mechanical point of view:
* How can coating a string with anything do msomething other than dampen its' natural vibrations and reduce sustain?
* How can any coating hold up to metal to metal contact between the fret and the bottom of the string?
* Why would a coating have any advanctages other than keeping sweat off of a string which is usualy made of stainless (won't rust) or nickel plated steel (resists rust)
We've used some very expensive coating for pistons on racing engines to reduce friction but due to the price point I can't believe that string makers are using anything that hi-tech
It is a fact that all metal work hardens or changes its' characteristics by the strees and starin of vibration and bending / flexing (obviously)
Uses to use Blue Steels as the cryo treatment is a real deal for specialty materials in a high stress enviornment
Anybody have any real, established, tech proof that shows some advantages of coating a vibrating wire with some form of plastic?
* How can coating a string with anything do msomething other than dampen its' natural vibrations and reduce sustain?
* How can any coating hold up to metal to metal contact between the fret and the bottom of the string?
* Why would a coating have any advanctages other than keeping sweat off of a string which is usualy made of stainless (won't rust) or nickel plated steel (resists rust)
We've used some very expensive coating for pistons on racing engines to reduce friction but due to the price point I can't believe that string makers are using anything that hi-tech
It is a fact that all metal work hardens or changes its' characteristics by the strees and starin of vibration and bending / flexing (obviously)
Uses to use Blue Steels as the cryo treatment is a real deal for specialty materials in a high stress enviornment
Anybody have any real, established, tech proof that shows some advantages of coating a vibrating wire with some form of plastic?

