The tin cones are at the entry end of the Fuelstar canister after a swirl plate. The cones are arranged loose with abrasive perforated separator plates between the rows. The numbers of cones in each model are matched to the size of the engine Fuelstar is to be fitted to, and the amount of fuel needed to be treated. At the exit end the treated fuel passes by powerful magnets, which assist in fracturing fuel hydrocarbon clusters through magnetic resonance (see the fuelmax page for more information). The Fuelstar process is activated by vibration which produces a rubbing action between the tin alloy cones and the seperator plates which releases very fine particles of tin (0.2 - 0.5 of a micron) into the fuel. These particles repel each other and the movement keeps them in colloidal suspension in the fuel. The tin alloy produces a catalytic reaction on the fuel during combustion at which time it is converted to a tin oxide. This reaction results in a more complete and cleaner combustion. The tin oxide formed helps clear carbon build up and coats the exhaust valve mating surfaces to alleviate valve seat recession.
I can't see this working:
At the exit end the treated fuel passes by powerful magnets, which assist in fracturing fuel hydrocarbon clusters through magnetic resonance
What this has to do with carbon build up?
The tin oxide formed helps clear carbon build up
What about oxygen sensors and catalytic convertors if it does:
coats the exhaust valve mating surfaces to alleviate valve seat recession
And judging on this
The Fuelstar process is activated by vibration which produces a rubbing action between the tin alloy cones and the seperator plates which releases very fine particles of tin (0.2 - 0.5 of a micron) into the fuel
I don't think it would release the "tin" in large enough amount or controlable manner to make a difference (don't forget the canister is soft drink can size, and lasts up to 500000kms).