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Do you need special rotors to use ceramic brake pads? 

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The results also indicate that pads and disc pairs which are able to stabilize friction behavior faster will produce less particle emissions which could influence the strategies of brake material formulations or steps during their production.
This knowledge can be used for structural optimization of brake rotors.
However, taken in combination, these data suggest that the necessary levels of reliability can be attained even in production ceramic turbine rotors.
Journal ArticleDOI
Xu Xin, Cheng Guang Xu, Liu Qing 
28 Feb 2007-Wear
161 Citations
The sisal is an ideal substitute of asbestos for brake pads.
Friction transfer materials removal, SiC region polishing, and lower real contact pressure reinforce hydrodynamic process that a ceramic composite brake can experience.
These performance characteristics can be influenced by the friction film (glaze) formed on the sliding surfaces of the brake rotor and pads.
These values compare well with the properties exhibited by conventional/commercial brake pads indicating a potential for effective performance in service.

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