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http://dx.doi.org/10.3740/MRSK.2003.13.3.144

Characteristics of Energy Dissipation in Vibration Absorbing Nano-Damper According to the Architecture of Silica Particle  

Moon, Byung-Young (Dongseo University)
Kim, Heung-Seob (Inje University)
Publication Information
Korean Journal of Materials Research / v.13, no.3, 2003 , pp. 144-149 More about this Journal
Abstract
This study shows an experimental investigation of a reversible nano colloidal damper, which is statically loaded. The porous matrix is composed from silica gel (labyrinth or central-cavity architecture), coated by organo-silicones substances, in order to achieve a hydrophobic surface. Water is considered as associated lyophobic liquid. Reversible colloidal damper static test rig and the measuring technique of the static hysteresis are described. Influence of the pore and particle diameters, particle architecture and length of the grafted molecule upon the reversible colloidal damper hysteresis is investigated, for distinctive types and mixtures of porous matrices. Variation of the reversible colloidal damper dissipated energy and efficiency with temperature, pressure, is illustrated. As a result, he proposed nano damper is effective one, which can be replaced the conventional damper.
Keywords
nano-technology; porous silica gel; mesopore particle architecture; lyophobic coating;
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